Marko Rodin - Smart Lazer Technology

a "to be continued dream"

Indeed.


Good call aether.




Almost like...it was already written...


Funny.

So what is separating the sodium from the chloride?

to separate sodium chloride:
use the method of electrolysis.
as we put sodium chloride i the test tube the Na and the Cl start separating because of the current passed: the chlorine attract to cathode as the poles are unlike.
and the sodium attract to the anode because of unlike poles.


t is the starting point for the Chloralkali process, which provides the world with chlorine and sodium hydroxide according to the chemical equation:

2 NaCl + 2 H2O → Cl2 + H2 + 2 NaOH
This electrolysis is conducted in either a mercury cell, a diaphragm cell, or a membrane cell. Each of those use a different method to separate the chlorine from the sodium hydroxide. Other technologies are under development due to the high energy consumption of the electrolysis, whereby small improvements in the efficiency can have large economic paybacks.


Perhaps a high influx of energy from the sun as electro-magnetic currents could do it. sk

i`m sure you are correct

my point is it seems to me that all of these elements are archetypes, they do what they do by force (influence)

discovering the natural sequence (hierarchy) of their manifestation (order of sequence/hierarchical events) occurring within nature enables us to discover each archetypes personality and place within natures flow (expression)

speaking for myself ,i realize i am in contact with archetypes whose personalities i get but i don`t possess their names (identity) similarly, i don`t know their hierarchy, (natural order), so i can`t place what they collectively tell me into sense because i don`t know what order to put what they tell into

it`s me, i just realized this thus will give it some thought

A spectrum of behavior is encountered in methane hydrate provinces, especially ocean sediments, ranging from essentially static accumulations where the pore space is filled with hydrate and brine, to active seeps where hydrate and methane gas phase co-exist in the hydrate stability zone (HSZ).
We present grain-scale models of drainage and fracturing, key processes involved in pressure-driven gas phase invasion of a sediment. A novel extension of invasion percolation to infinite-acting, physically representative networks is used to evaluate the connectivity of water in a gas-drained sediment. A novel implementation of the level set method (LSM) is used to determine the capillarity-controlled displacement of brine by gas from sediment and from fractures within the sediment. The discrete element method (DEM) is extended to model the coupling between the pore fluids and the solid and thereby predict the onset of sediment fracturing by gas phase pressure under in situ loading conditions. The DEM grain mechanics model accounts for the different pressure of brine and methane gas, in a “membrane” two-fluid model. The fluid-fluid configuration from LSM can be mapped directly to the pore space in DEM, thereby coupling the drainage and mechanics models. The type of behavior that can emerge from the coupled processes is illustrated with an extended LSM model. The extension computes grain displacement by the gas phase with a simple kinematic rule.
The LSM predicts gas/brine interface movement in sediment/fractures, and the DEM shows that the interface location affects the strength of sediment. Network simulations indicate that brine in drained sediment is better connected than previously believed. This increases the availability of water, water-gas interface area and consequently the rate of counter-diffusion of salinity ions, thus relaxing the limit on hydrate build-up within a gas-invaded region. The DEM model reproduces the key processes in the fluid-solid interaction. It was validated by means of isochoric pressurization tests, multistep inflow/outflow experiments, and drained/undrained consolidation tests. DEM simulations reproduce the sediment stress-strain behavior in laboratory triaxial experiments. The DEM model shows that vertical fracturing of the sediment is favored at the base of the hydrate stability zone. The kinematic extension of LSM yields much broader capillary pressure curves and self-reinforcing invasion paths, confirming the utility of ongoing efforts to integrate the DEM and network/LSM models.

[link to en.wikipedia.org]
In electrolytes, electrical conduction happens not by band electrons or holes, but by full atomic species (ions) traveling, each carrying an electrical charge. The resistivity of ionic liquids varies tremendously by the concentration - while distilled water is almost an insulator, salt water is a very efficient electrical conductor. In biological membranes, currents are carried by ionic salts. Small holes in the membranes, called ion channels, are selective to specific ions and determine the membrane resistance.

[link to en.wikipedia.org]

While ordinary liquids such as water and gasoline are predominantly made of electrically neutral molecules, ILs are largely made of ions and short-lived ion pairs. These substances are variously called liquid electrolytes, ionic melts, ionic fluids, fused salts, liquid salts, or ionic glasses.

I believe it will also lead to electrolytes Aether as well

[link to en.wikipedia.org]

In physiology, the primary ions of electrolytes are sodium (Na+), potassium (K+), calcium (Ca2+), magnesium (Mg2+), chloride (Cl−), hydrogen phosphate (HPO42−), and hydrogen carbonate (HCO3−). The electric charge symbols of plus (+) and minus (−) indicate that the substance in question is ionic in nature and has an imbalanced distribution of electrons, the result of chemical dissociation.

they feel complimentary so i am comfortable with their appearance and effects but never inclined to look at them unless prompted to be like i was last year



Thread: Marko Rodin - Smart Lazer Technology (Page 176)

which was as much about you as it was about anyone else

i wonder