god is a Gas

Pure Water  aka HOH

 is only found as a solute aka a liquid solvent at a certain range of pressure conditions where the

pressure of the at most sphere of influence containing 

the contained volume of water in question is

 contained and influenced by

the container containing the container

 (watch ISS video clips of water in space: bubbles floating in a floating bubble) 

and

the contained water has a contained pressure that 

is directly proportional to 

one atmosphere of pressure at sea level on earth

for the given volume of H2O contained

 as Os and as Hs contained by

 OH-s and H3O+s

Water boils when:

the pressure contained in a volume of water is

 equalized with the pressure of 

the atmosphere containing the container....::::

(Think electron shells vs atmospheric shells)

Water freezes when:

the at most spheric pressure containing a

 volume of water equalizes 

the contained pressure of

 the volume of water contained

Atmospheric pressure rises when temperatures are found to rise

evaporation results from Autoprotolysis loosening the volume of H2O contained in solution

spreading the volume contained over a larger area reduces the wetness

reducing the wetness reduces the apparent weight

releasing energy as heat in the process at high amplitudes and short wavelengths

Atmospheric pressure falls when temperatures are found to fall water is formed as autoprotolysis slows and volume contained shrinks

storing energy as organized crystal vibration at low amplitudes and long wavelengths

At one atmosphere of (think one ring of electrons) pressure autoprotolysis is increased by adding heat to the volume of water through the water container

ADDing head to water has the effect of increasing the pressure of the water relative to the atmosphere containing that pressure

watch a video of the ISS and see what happens with water when the container containing the water is not contained

by atmospheric pressure ...the water contains itself as a drop until some change in the atmosphere containing the

drop changes changing the forces acting on the components creating the drop aka OH+ and H3O- attracting each

other

At the level where

it makes a difference

ch+ar-ge=

+/-/=

Positive/Negative/balanced

Cathode/Anode/circuit

Attractive/repulsive/balanced

Organized/chaotic/movement

Battery/Conductor/resistor

Store age/Use age/trans mission

Magnetic/Electric/static

Stay/Go/move

Proton/Electron/sphere

determines structure

as 

geo metric octagonal

organ is at ion is

Proton count

 determined

density

deep

as

a

an

and

depends

on the number

of rings of pairs of

electrons which form form

when not forming form around form

known to the tuned out as the vacuum of

time and space

The two

imaginary

ideas dancing 

in the front of 

the fountain as all

the work is done behind

the seen often called the scene

The self-ionization of water (also autoionization of water, autoprotolysis of water, autodissociation of water, or simply dissociation of water) is an ionization reaction in pure water or in an aqueous solution, in which a water molecule, H₂O, deprotonates

 (loses the nucleus [which is the proton] of one of its hydrogen atoms)

 to become a hydroxide ion, OH⁻.

OH- then being eight Protons and nine electrons

resulting in the negative charge 

of one attached to

eight protons

And as explained by Plato through Socrates

in a chain of magnets the strength

is transmitted along each link

 The hydrogen nucleus, H⁺

Now known to be a Proton

immediately protonates 

in the acid base reaction terminology

H+ acts as a Proton donator

another water molecule to form

 a hydronium cation,

 H₃O⁺. 

Water with a positive charge

This is an example of autoprotolysis, 

Which is also a characteristic of 

Carbon 6 protons

Oxygen 8 protons

Nitrogen 7 protons

and exemplifies the amphoteric nature of

1.  water Made of the first and third most abundantly found ideas 

2. Carbon compounds aka all organic matter

3. Nitrogen based interactions as in

4. Air which is 76% Nitrogen and 24% Oxygen

The self-ionization of water was first proposed in 1884 by Svante Arrhenius as part of the theory of ionic dissociation which he proposed to explain the conductivity of electrolytes including water.

 Arrhenius wrote the self-ionization as

 

 At that time, nothing was yet known of atomic structure or subatomic particles, so he had no reason to consider the formation of an  ion from a hydrogen atom on electrolysis as any less likely than, say, the formation of a  ion from a sodium atom.

In 1923 Johannes Nicolaus Brønsted and Martin Lowry proposed 

that the self-ionization of water actually involves two water molecules: 

By this time the electron and the nucleus had been discovered and Rutherford had shown that a nucleus is very much smaller than an atom. This would include a "bare ion"  which would correspond to a proton with zero electrons. 

Brønsted and Lowry proposed that this ion does not exist "free in solution".

Let that sink in...::.

 The Proton always attaches itself to a solvent~

 always made of "a water" molecule

 to form the hydronium ion  (or other protonated solvent)

The universe is made of water as evidenced by the two 

of the three 

components most frequently found around 

Oxygen and Hydrogen

Later spectroscopic evidence has shown that many protons are actually hydrated by more than one water molecule. This is in other chemical pits of nonsense called saponification 

Saponification is the chemical process of making soap by reacting a fat or oil with a strong base, typically sodium hydroxide (lye). This reaction breaks down the ester bonds in the fat or oil, releasing glycerol and soap molecules. The resulting soap is a salt of a fatty acid, which has a polar head and a non-polar tail, enabling it to dissolve both oils/grease and water, making it effective for cleaning. 

Loose Protons then cause motion 

by giving Atomic collections 

the appearance of liquidity that is

the essence of flowing water 

AI Overview

In essence, 

yes, water with a pH of 9.5 will likely exhibit different electrical properties, including a different perceived "charge," when frozen into ice compared to its liquid state. However, it's crucial to clarify how pH relates to "charge" and the distinction between the overall electrical charge of a solution/substance and its electrical conductivity.

Here's a breakdown:

1. pH and net charge

• pH measures hydrogen ion concentration: A pH of 9.5 indicates a basic (alkaline) solution, meaning it has a lower concentration of positively charged hydrogen ions (H+) and a higher concentration of negatively charged hydroxide ions (OH-) compared to a neutral solution (pH 7).
• Aqueous solutions can bear a net charge: Studies indicate that aqueous solutions with high pH values (basic solutions) tend to be negatively charged, while solutions with low pH values (acidic solutions) tend to be positively charged. This implies that a solution with a pH of 9.5 would have a net negative charge. 

2. Freezing and ion concentration

• Ions are "trapped" during freezing: When water freezes, a phenomenon known as "ion trapping" occurs. This means that dissolved ions, including those responsible for the solution's pH and electrical properties, are preferentially excluded from the growing ice crystals and become concentrated in the remaining liquid portion.
• Ion concentration in ice is reduced: This effectively means the concentration of ions (like H+ and OH-) within the frozen ice will be lower than in the original liquid water. 

3. Impact on electrical properties (including perceived charge)

• Electrical conductivity depends on ion mobility: Electrical conductivity in water and ice relies on the movement of charged ions. In liquid water, these ions can move relatively freely. In ice, however, the ions are more locked into the crystal lattice, hindering their movement and significantly reducing the conductivity of the ice compared to the liquid water.
• Change in "charge" due to altered ion distribution: Because the ions are redistributed during freezing, the frozen ice will have a lower concentration of the ions that determine the pH (H+ and OH-) compared to the original liquid water. This could be seen as the ice having a reduced net negative charge compared to the liquid water, as fewer charge-carrying ions are present and mobile within the frozen structure. 

In summary

When you freeze water with a pH of 9.5, the resulting ice will likely exhibit a different "charge" than the original liquid water because:

• Liquid Water: Has a net negative charge due to the excess hydroxide ions (OH-) associated with a pH of 9.5.
• Ice: Will have a reduced concentration of ions, including hydroxide ions, because many of them are excluded during the freezing process. This reduction in ion concentration can be interpreted as a shift towards a less negative (or potentially closer to neutral) "charge" compared to the initial liquid water. The ice will also be a significantly poorer conductor of electricity compared to the liquid water due to the reduced mobility of ions in the solid state. 

The most descriptive notation for the hydrated ion is ${\displaystyle {\text{H}}^{+}(\text{aq})}$, where aq (for aqueous) indicates an indefinite or variable number of water molecules. However the notations ${\displaystyle {\text{H}}^{+}}$ and ${\displaystyle {\text{H}}_3^{}{\text{O}}^{+}}$ are still also used extensively because of their historical importance. This article mostly represents the hydrated proton as ${\displaystyle {\text{H}}_3^{}{\text{O}}^{+}}$, corresponding to hydration by a single water molecule.