, then we reach a point at which the little magnet instantaneously jumps in the vertical direction and sticks to the larger magnet. We have here a machine which, for a fraction of a second, works with an infinitely high efficiency. For example, if the mass of the little magnet is 0.001 kilogramme and it suddenly rises 0.01 metre, then a work (or energy) of about 0.000098 joule is created without any input. Furthermore, there is no change in the molecular structure of the magnet (no chemical reaction) and no destruction or change in the atomic structure (no fission or fusion). It is absolutely obvious that the Law of Energy Conservation does not apply if we try to explain this experiment.
), we can represent the characteristics of those subatomic units. They are tiny little living gyroscopes, and they can individually control the direction of their rotating axes. (For more complete details, see "Les Atomes Vivants" by Szekely, Etienne.)
or 
, then the pattern is stable. This explains why the flux lines are forming closed circuits. On the other hand, the position
or 
is unstable, and the living gyroscopes start their efforts to find more stable positions. The direction of the arrows determines the polarity of the magnet. (Poles do not exist.)
. If the gap is short enough, then the whole picture of the flux lines changes, as shown in Figure 07-03.
acts on the bodies of the magnets. Of course, this force, which is supported by the structure of the flux lines, acts according to Newton's third law of motion (action and reaction). If the force is stronger than the weight of the little magnet, then a work is done (energy is created), and the input energy is furnished by the work done by the subatomic living gyroscopes.
Efficiency (
) = ((Work of the flux lines - Losses) / (Input power's work) x 100) %
is always less than 100%. This is because the work of the flux lines is very limited, and not because they have to obey the Law of Energy Conservation.
. Position c shows the flux line pattern after its direction is changed.
Efficiency (
) = ((Work of the flux lines + Surplus energy created by the collapse - Losses) / (Input power's work) x 100) %
a x (
x (
/ 
))2 (for each revolution)
where
a is the capacity value of the system,
is the number of turns of the coil, and
(
/ 
)
is the instantaneous change in flux value. One part of this energy should be returned to the system by the battery, but this is done in Position c, where the flux value is the least, while the collapse is done when the flux is at its maximum value. The increase of the flux value is realised by the work of the flux lines, and not by the input current. With a huge volume of copper wire solenoid, the capacity value and the collapsing power is considerable. (It seems that Mr. Newman used it to light up a fluorescent tube.)
) of the device was about 0.7 metre long, its weight about 50 kilogramme. The solenoid (
) was made of 8000 turns of 18 gauge wire, and the steel core was made of 26 gauge transformer steel sheets, with a total cross section of about 0.1 x 0.1 metre2. The commutator
inverses the direction of the solenoid current in the position as shown.
(
x
) /
in the shaded area, where we have a high permeability value and very low hysteresis losses. By braking the rotating shaft, we go from Position a to Position b. The solenoid current will slightly increase, but this is compensated by a stronger magnetic field. We can state that only the special characteristics of ferromagnetic materials (soft and hard) allow us to suggest that a 110% efficient electromagnetic device is possible.