By adding extra partners (with countersprings) which return to an outer concentric circumference then, in turn, comes into the magnetic fields of the rotary bar magnets whose moving paths form the, inner concentric circumference, i. e. two nearby concentric circles.

The inner circle being the MOVING path of the rotary bar magnets. The outer circle being the STOP position of the partners.

This improved version of the Magnetic Field Motor Mark II would keep the rotary bar at a steady speed. (details given further on).

Therefore, we will call it the Magnetic Field Motor Mark m The COUNTERSPRING is an addition which creates a tension as the rotary bar travels towards the partner (the partner arm's magnet).

The tension to be created is when the rotary bar's magnet and the partner are nearing and including their closest attractive. positions to each other, i. e.

THE COUNTERSPRING COLLECTS AND STORES THE REACTIVE FORCES IN THE TENSION CAUSED AGAINST THE ATTRACTIONAL FORCES BETWEEN THE TWO MAGNETS IN THE STRONGEST PART OF THE FIELD. THIS FORCE IS RELEASED AS AN OUTPUT WHEN THE ROTARY BAR MAGNET TRAVELS BY, REPELLING IT'S PARTNER.

This counterspring will also stop the partner from going inside the outer concentric circle (as stated later).

When the rotary bar travels by, the partner also repels away with the aid of the counterspring AND other forces (mentioned later).

Thus the kinetic forces on the partner arm can help to continue the rotation of the rotary bar preferably by mechanical means and still have some force left over.

IMPORTAWT : the counterspring has a dual purpose.

1) To collect and store some or most of the reactional force for helping to repel its partner arm with excess force N. B. The magnet on its arm also helps to repel the arm as the rotary magnet travels by.

2) To stop each partner (arm) on the outer concentric circle.

Another object used is the COUNTERLINK. This is a important coupling rod which connects one partner arm to a second, partneraim.

The purpose of this counterlink is:-To return the second partner (arm) from outside the confines of the magnetic field to the outer concentric circle as the first partner (arm) repels. and vice versa.

These counterlinks connect pairs of partner arms only.

Only minimal frictional force is used for the counterlink movement.

N. B. The earth's escape velocity is approximately 25, 000 M. P. H. reducing according to the strength of its gravitational field and the direction and distance required by its moving partner (space vehicle), The magnetic escape velocity (ME0* although much less, depends on the strength of the magnetic field and the direction and distance required by, its moving partner (the rotary bar).

Because of this, it is impossible for the rotary bar to rotate at an excessive speed. Thus; it is easier to control or stop it.

*MEV : A speed and distance where the force fields no longer help the rotary bar whilst in motion. The force fields react when the rotary bar loses speed (kinetic energy) through friction or work, (heat energy). In other words, the option of creating more force is lost when the rotary bar is moving at or above the MEV rate: i. e. when the forces from the partner arms are turned inwards towards the rotary bar which has the output on its spindle as with the Mark II motor.

Therefore, with this Mark III motor the output is to be from the partner arms via a regulator e. g. gears etc. with some input to the rotary spindle giving it a set slow speed (under the MEV rate), then any remaining force to be used as other useful energy.

According to this invention, the result would be extremely useful in that it would provide an output of energy without any fossilise or radiated pollution.

There will be"magnetic pollution"but this can be screened by ferrous means.

There may be latent or static electricity but this can be earthed. Now for the thesis in human (layman's) terms.

The earth has its own attractional force field. It is very big.

Therefore, you will have to travel away from it for many miles before you notice any difference in the strength of its force field.

You cannot make a machine large enough to make use of the differences in forces.

The magnet has its own attractional force field. The differences in strength are noticeable only centimetres away.

Let us make use of it by starting from the beginning.

Fix a magnet to one end of a non-magnetic lever. On the other end, drill a pivot hole for minimum friction pivot.

Example 1 is shown on the top half of page 1 of 7 of Drawings.

For double strength and balance ; double the length of lever ? then fix a magnet at each end of the lever with one pivot hole in the centre of the lever.

Example 2 is shown on the top half of page 1 of 7 of Drawings.

On a pivot (spindle) this lever is now able to swing around, the magnets moving in one path only, i. e. a CONTROLLED movement at the circumference only. We will call this lever a ROTARY BAR ? with a spindle hole in the middle. Fixed onto a frame would look like:- Example 3 shown on the top half of page 1 of 7 of Drawings.

N. B. If pushed the fixed magnets would swing around in their own circumference path.

As noticed, the rotary bar will not move without force.

To make it move ? it must have a, partner of which it is able to have some control over.

In this case, the partner should be a permanent magnet fixed onto the end of a non-magnetic lever, which should swing on a minimum friction pivot.

The object of the swinging lever is for its fixed partner to repel freely in a controlled path as the rotary bar with its magnet moves by and-also, this partner return back and stop on the outer concentric circumference ready to attract the next rotary bar towards it- Example 4 is shown on the top half of page 1 of 7 of Drawings.

(D-Pivot: C-Rotary Lever: A-Rotary's Magnet : AA-Partner/ Magnet: V-Partner Arm: I-Pivot : N-Spring/Stop : K-Balance).

Notice how the rotary bar is attracted to the-partner, (The partner is not moving because of tha spring/stop lug but, it has a tension force because it is being attracted forward), As again noticed, the rotary bar moves forward to the partner but will not travel by because of the"holding"forces.

It may require more force for it to pass by (without touching). Lets say: use three more rotary bars and their partners (and countersprings) with. their own fields.

By positioning, them aLong. the shaft in order that their magnetic fields do not interfere with each other yet, their attractions follow close enough for the forces to'traver'via. the shafL in. order to move. the first rotary bar past its partner. It can then be free of its holding force and in conjunction with the counterspring,, repel its. partner away with-excess-force.

Thus ; this fairly strong attractional force on the second partner and the weaker forces. on. the third and fourth partners respectiveLy are :. the OTHER forces which pull the first rotary bar past, repelling its partner. (see page 1). N. B.

The magnets are fixed so that like poles repel at this point. Another force? Once we have completed this small movement, all we have to do is add extra rotary bars and their partners; with countersprings and counterlinks ; to complete the circuit. Then providing that some of the"excess"released and repelled force is used-as input for continuing, to rotate the shaft of the rotary bars at a set speed, i. e. under the MEV rate ; the remaining excess force can be used as an output. for other usefuL energy.

The motion, being similar to that of an electric motor, requires the frame to be similar Le-round.

The machine requires the frame ta be flat. or fixed because of gravitation.

Therefore, the first machine will have a round inner frame fixed to a square outer frame.

The previous writings and drawings together with the following detailed drawings and explanations will make up a specific embodiment of the invention.

Page 1./7 contains. Examples L to 4 on top of page as previously stated. Lower half'contains-A section of a 4-levered rotary bar an part of a. shat (spindle).

A :- Fixed permanent magnet. (one should be fixed on the. end-of each-of the 4 levers) B :- Spacer (for distancing discs along the shaft).

C :- Lever on disc. (E). Four. levers an disc.

D :- Shaft or spindle (part of).

E :- Disc.

Pages 2 +3/7 show the rotary, ban in pieces (for repair) also the shaft.

E: disc with toothed hole for fixing in position on shaft.

F :- End of shaft to take input pulley or gearwheel.

G :-Where shaft is fixed into minimum friction bearing on outer frame. (Repeated letters as described for previous drawings) Page 4/7 shows the partner arm luding its counterspring.

AA :- Partner (magnet) fixed on one end of partner arm.

H :- Output-lever of partner arm N. R. The angle of the partner arm to suit the output'pickup', even 180 degrees, angle.

J1, 2,3 &. 4:- Partner arm pivot (JL) withLbearing. (2 set in inner frame), spacer J3 and nut J4.

K :-Weights(balancing).

N :- Counterspring, one end set in frame, other end for tension m partner arm.

Page 5/7 shows one section of 4-part inner frame with partner arms (rotary bar shown is set in outer frame, not shown).

Please note, counterlink'S'see drawing 6/7. Also note'N'counterspring.

T :-Stop switch. (partner arm is stopped midway in its Movement).

Page 6/7 shows reverse side of same section as page 5.

L :- Underside of partner arm's pivot(J1), for connecting two partner arms with counterlink'S'.

Page 7/7 shows complete machine (expanded).

If closed, would be connected by shorter frame rods R:- Frame rods (Length to suit).

I :- Input (pulley or gearwheel) would be on one end of shaft.

N:- COUNTERSPRINGS vaguely seen, but can be any design so long as there is a counter tension. It is preferred if it was made of non-magnetic material.

In fact, apart from the magnets, all materials should be no-magnetic.

N. B. In this case, the partner arms are pivoted in such a way that-tbirtytwo action/reaction movements are spaced equally throughout one complete revolution of the rotary bar.