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Economically feasible ways of making hydrogen has proven to be elusive, so
all new ways to make hydrogen should be pursued. Researchers are urged to
explore producing hydrogen by magnetic separation. Ionized water particles
accelerated in a vacuum may be whip-lashed magnetically to disassociate the
hydrogen and oxygen.
This process has the advantage of using only water and
electric power. If electric power is used to produce hydrogen on light load hours it serves as
load leveler for electric power systems. Since hydrogen can be stored (as
opposed to electric power) it can generate
electrical power during peak use periods.
Three hydrogen and oxygen separators will be
described. All three separators use the same basic
idea. It is obvious that many configurations are possible and experience will favor
some and eliminate others. Cascading of the following
schemes may be desirable to improve efficiency.
CAUTION: Hydrogen is very explosive. These devices generate hydrogen and
oxygen which may accumulate and suddenly recombine. While that is dramatic proof
hydrogen is being made, care should be taken that an experimenter is not
included in the drama.
Hint: Ion beams are invisible. A shaker sprinkling tantalum dust on the beams
will sparkle and make their trajectories visible.
CONFIGURATION I
Refer to figure 1a. A direct current conductor that contains two coolant paths
had a
slot between the coolant paths. (Braze two
square copper conductors together on their edges. Before brazing, mill
a small amount from one edge of each conductor so that a slot will appear when the
conductors are brazed.) See Fig. 1b.
Place the conductor inside a vacuum
tank with an ionizing gun. Ionized water vapor is
accelerated to pass through the conductor slot. Direct current in the cooled conductor generates a field
that is strongest close to the conductor. The field at
the top of the slot is in the opposite direction from
the field at the bottom of the slot. As ionized vapor
molecules approach the slot they are deflected by the
conductor's self field. The molecules will be deflected
in the opposite direction as they exit the slot. The
resulting whiplash jolt will separate a percentage of
the hydrogen from the oxygen. Individual atoms and
molecules will now have a different mass and will
therefore follow a different trajectory in the magnetic
field. Collector funnels, appropriately placed, will
create the tank vacuum and collect the separated
products. See Fig. 1b.

Figure #1. For larger display click on figure.
CONFIGURATION II
Refer to Figure 2. This CONFIGURATION uses a vacuum
tank, magnets, and electric arc like the early fusion research machine DCX-1 (except at much reduced power levels)
developed at OAK RIDGE NATIONAL LABORATORY in the late
50's. Harry Hoy provided the design specified by John
Luce.
Two magnets on the same centerline generate a field
between them. Accelerated vapor in the plane between
the magnet pair is deflected by the magnet field. The
vapor molecule is disassociated when it passes through an high direct
current arc that is on the center line. The hydrogen,
oxygen, and leftover water is collected in the same
fashion as described in CONFIGURATION I.

Figure #2. For larger display click on figure.
CONFIGURATION III
Refer to Figure 3. This configuration uses magnets
in a vacuum tank as in CONFIGURATION II. An ionizing
accelerator is not needed in this configuration. The direct current arc is hollow. The vapor exits
from a vortex tube mounted inside the arc. The vapor
particles exit the vortex in a plane that is near the mid-plane, but not on the
mid-plane, between
the magnets. The only escape for the particles is
through the hollow arc. The molecules will
be separated when they pass through the ionizing arc. By not being exactly in
the mid-plane the magnet field will divert particles into different trajectories
for the various collecting rings
The product will come from all around the circumference
of the arc.

Figure #3. For larger display click on figure.
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