The behaviors of
negative hydrogen ions can be clarified under the beam extraction.
These operations were conducted at numerous places, and, during the beam extraction, we investigated how the flow of
negative hydrogen ions changed.
The mechanism of how
the negative hydrogen ions change the direction of their velocity and are extracted as a beam has not been clarified.
Now, by recreating the chemistry of those early gas clouds in the lab, researchers have determined the rate at which hydrogen atoms and
negative hydrogen ions combined in the primordial soup.
Accompanying the beam extraction, the spatial flow distribution of
the negative hydrogen ions was investigated by measuring the flow of negative hydrogen ions with the use of a compound - type electrostatic probe with four needle - type electrodes irradiated by laser pulse.
To this point, regarding the processes concerning the beam production through the extraction of
negative hydrogen ions, although many simulations have been conducted, because numerous physical processes are related to this issue we still have not obtained results that will help explain the experimental results.
In addition to achieving success in improving the performance of
the negative hydrogen ion source, we clarified experimentally detailed physical phenomena related to negative ion source plasma by using numerous diagnostics to investigate negative ion source plasma from numerous directions.
In the large
negative hydrogen ion source at NIFS, various types of diagnostics are available for measuring
negative hydrogen ion density, electron density, and other quantities.
Not exact matches
Unlike ice sanitizing technologies that use UV light or other sources that create ozone, which can be hazardous to health, the patent - pending BPi200 uses a small electrical housing and carbon - fiber brushes to release airborne positive
hydrogen and
negative oxygen
ions throughout the ice machine without creating ozone.
On the other hand,
negative hydrogen / deuterium
ion beams sustain the energy - independent neutralization efficiency of ~ 60 %.
In the case of the
negative ion source, the small amount of cesium is injected into the
ion source and the cesium - adsorbed surface of the so - called «plasma electrode» become activated to transfer the electron to
hydrogen atoms and hydrogenous positive
ions that are colliding on the surface.
Development of neutral beam injection (NBI) heating system utilizing a
hydrogen / deuterium (H / D)
negative ion source, is significant for a fusion plasma reactor, which is one of the potential solutions to future energy - resource problems.
To balance the
negative charge caused by the loss of positive
hydrogen ions, sodium
ions pass from the central saltwater chamber into the cathode chamber via another membrane.
Pure water contains a
hydrogen - bonding network due to the
negative oxygen
ions wanting to bond with the positive
hydrogen ions.
The combination of the water, salt, and the array are meant to generate
negative ions by separating oxygen and
hydrogen from the water, neutralizing charged particles in the body and drawing toxins with the opposite charges out.
The reaction increases seawater acidity and increases the
hydrogen ion activity, thus lowering seawater pH. pH is defined as the
negative logarithm of the
hydrogen ion activity, so that a 1 - unit change in pH is equivalent to a 10-fold change in H +.