Multiple induction energy-driven engine

Abstract

Generally in conventional methods the engine parts are usually dynamical supported by a single support, which is usually the crankshaft. The present invention provides various embodiments aiming to demonstrated how the use of more than one induction means enables to obtain a more versatile movement of the parts capable of providing energy gain. Moreover, even in engines which still have operating conditions of parts similar to those of conventional engines, the use of the concept of multiple induction for supporting the movement of the main parts provides considerable energy gains and corrects defects of machines such as engines compressors or conventional pumps, making them more efficient.

Description

[0001] When we take a close look at the concept behind conventional engines, whether they are of the cylindrical piston type, or of the rotary type, we soon see that the designers and the users have focused their production on conceptions aimed at the simplest structures, leaving it up to the transmissions and the differentials to deal with the more complex tasks of energy transmission, for instance, toward the wheels. We have searched for the same simplicity in the invention of the depositor for the “Energy Machine III”, the subject of Canadian patent number 1.229.749, deposited on 18 months 1985 under the number 476.720 and issued on Dec. 1, 1987.

[0002] The purpose of this invention is to demonstrate the shortcomings of such a way of thinking concerning the expenditure of energy. Indeed, single induction engines substantially reduce the possibilities of the forms of movements of parts which, in internal combustion engines, will be required to produce the compression and expansion of gases, generating explosions and the dynamics of the engines.

[0003] Therefore, in the following pages, we will present a set of oval, FIG. 8, triangular, rectilinear and other figures which will produce the moving parts of multiple-induction energy driven engines.

[0004] We will begin by mentioning that conventional engines, principally piston and rotary engines are examples of this trend to push design toward extreme simplification. These engines are activated dynamically by a single part, either the crankshaft for piston engines, or the crankshaft and an eccentric for rotary engines. Otherwise, the movement of the parts is static; in a conventional engine, the piston inserted in the cylinder follows a rectilinear path whereas, in a rotary engine, because the triangular piston is also submitted to anchoring at the engine end, its movement becomes almost elliptical.

[0005] In both cases, the primary geometrical figures obtained result in the production of power that is barely cost-effective because the torque, on explosion of the engine and within the successive fractions of seconds that follow, is relatively low compared to the energy being consumed.

[0006] The same applies with respect to our invention for the “Energy machine III” mentioned previously: we have opted for simplicity. In the more particular case of one of its embodiments, a blade is inserted so as to slide in and interposed rotating part, in a rotational manner, and off-centred in an engine block, in such a way that the ends almost touch the semi-cylindrical cage used as inlet and explosion chamber and consequently the cylinder of the machine. However, although this mechanism does offer the advantage of improving the engine torque, in addition to allowing the conventional valves to be removed, it has the shortcomings of producing too much friction and, accordingly, excessive wear between parts, essentially between the rings and walls of the combustion chambers, and then between the blade and the rotary hub in which it was inserted so as to slide.

[0007] The idea of the multiple-induction engine idea was put forward as a means of resolving all these problems and to obtain the definite greater profitability of accepting more parts to obtain the movement of the engine. Indeed, we believe that this method is liable to offer a movement of the parts that is more original and likely to increase the torque while eradicating any induced friction surfaces. Accordingly, if the explosive power is increased, and if the power systems are simplified, everything leads us to believe that a fewer number of parts will be required for explosion, to obtain the same engine power. Consequently, conversely to the initial hypothesis, the total number of parts needed for constructing an engine with the same power will be smaller for a multiple-induction engine than required in conventional engines. Furthermore, the engine dimensions will also be smaller.

[0008] Therefore, we began our process of thinking by considering what mechanism we could used to support the energy engine parts and eliminate friction.

[0009] We began thinking by taking a closer look at the movements of the blade end find aiming at connecting the mechanism at either end, if we can produce the desired mechanical effect. By investigating the movement of the ends with respect to one another, we first observed that their movement goes through two phases opposite to one another, an acceleration phase and a deceleration phase. Accordingly, when one end enters its deceleration phase, by compensation, the other end begins its acceleration phase.

[0010] This gave us the following geometrical idea: if a circumference can be made to rotate about another circumference having the same size, and if we follow the movement of a fixed point on the first circumference through one complete revolution, and therefore one pivoting action, then this point will accurately describe the desired form, i.e., the shape through which the blade end travels (FIG. II).

[0011] From the mechanical point of view, we assumed that the circumferences would be materialised by gears. Since the movement described above is that of one end of the blade, and that the blade has two ends, two rotary circumferences would be necessary in the form of gears. Accordingly, we are able to propose an initial embodiment of the invention (FIG. III) by imagining that the two gears, replacing the pivoting circumferences—which we will refer to as the induction gears—are mounted so as to rotate at either end of a pivoting part—which we will call the induction support—which is mounted so as to rotate in the engine housing. The two induction gears, of the same size, are then interleaved with a gear, itself being of the same size—which we will refer to as the supporting gear—connected rigidly to the engine centre. In this way, if both ends of the blade are connected to anchor points on the induction gear diameter it will be seen that the blade describes very accurately the movement that we were seeking and that, consequently, all induced friction is eradicated and that it is no longer for it to be inserted into a core, as was previously necessary.

[0012] In the two figures IV and V, we showed a blade successively in its explosion and expansion phase. Initially, it will be seen that the two interconnecting points of the gears are simultaneously at their lowest point. In this position, the combustion chamber is reduced to the minimum and the gases are ready to explode whereas, on the other side of the blade, the inlet chamber is increased to its maximum. Then, we show the arrangement of these parts a quarter turn earlier, when the interconnecting points are both at their highest level. We then verified whether this method of proceeding was simply an alternative of a more general idea. That is why we first wanted to demonstrate the variants of this idea before demonstrating its other particularities.

[0013] Accordingly, whereas in the first embodiments not only were the induction gears of the same size as each other, but it will be remembered that they were of the same size as the supporting gear. In the subsequent embodiments, the sizes of the induction gears are different from those of the supporting gears.

[0014] We obtain a second figure if we assume that the induction gears are twice as small as the supporting gear. In this case, the figure produced by a point on the induction gear has the same shape as a (FIG. VI). Accordingly, is each of the induction gears is connected to a given part, triangular in shape, we obtain an engine whose movement, similar to that of a rotary engine, is however produced in a totally different and far more profitable way. Indeed as will be shown more extensively in the detailed description of the figures, the rising of the parts produces what could be referred to as a mechanical contradiction, a sort of locking action which systematically prevents the parts from descending back toward the rear. Therefore, during the explosion, the thrust on one side of the triangle is not partially cancelled by the other part of this side because the mechanical locking action does the work. Instead of benefiting as a result from only one-third of the thrust, we obtain rather two times more, i.e. two-thirds of the available thrust (FIG. IX).

[0015] A third embodiment of the invention is obtained when we establish a ratio of one in three between the size of the induction gears and that of the supporting gear. The shape obtained is semi-triangular (FIG. X) and a blade is attached to the two induction gears: in this case, the shape of the engine obtained is similar to a cloverleaf.

[0016] Subsequent shapes can be obtained depending on whether the gears are in a ratio of one in four, one in five etc. Conversely, if there is only one gear, the shape of the movements will be oval and conventional piston may be attached to it.

[0017] In each figure produced, we can provoke concave or convex movements depending on whether blade pistons or triangular pistons are attached inside or outside the circumferences, as shown in FIG. XXII.

[0018] Similarly, if the adjustment of the attachment points between the blade and the supporting gears do not match, it will be seen that the distance between this point will vary by oscillating throughout the movement. This method could make it profitable to use a flexible piston.

[0019] Up until now, we have generalised part of the invention by demonstrating the notion of multiple-induction using external gears.

[0020] Interesting shapes can be obtained by using, now, as opposed to external gears only, as mentioned previously, two sets of external and internal gears.

[0021] In this case, it will be more particularly a matter of inserting external type induction gears into internal supporting gears.

[0022] Among the interesting figures created in this way is that of the triangular engine. Indeed, it can be assumed that two identical induction gears are attached, as in the first case on a rotating basis upon a rotary support, with smaller gears, in a ratio of one to three, on an internal supporting gear into which they are inserted. A blade will then be attached to the anchor points of the induction gears. Accordingly, it will be seen that this blade describes a movement in such a way that the ends can, at any time, follow the walls of a triangular cylinder in which it moves, while increasing and decreasing in turn the combustion and inlet chambers, as can be seen in the FIGS. XII, XXX and XIV.

[0023] This way of operating could very certainly be the origin of what we might be tempted to call a three-stroke engine, in which an additional stroke would be inserted between the two strokes of the two-stroke engine. This would be an air integration stroke, expelling burned gases, which would then be replaced by new gases. Accordingly, the old gases would never be able to enter the combustion chambers again, and likewise, no new gases would be evacuated during the exhaust process.

[0024] If a single induction gear were used, the movement obtained would be absolutely rectilinear and could be linked with a two-head piston (FIG. XIV and XV).

[0025] So far, we have demonstrated how multiple-induction engines could be built using external or internal gears.

[0026] Another variant of the invention could be considered if we assume in this case the multiple-induction of the main parts (blade or triangular piston) by the use of a different type of induction, i.e.: gears and crankshaft for instance.

[0027] Two different embodiments can be obtained depending on whether the crankshaft movement is or is not in the same direction as that of the blade or the triangular piston.

[0028] First, we need to produce a blade at the centre of which the eccentric of a crankshaft will be inserted (FIG. XVIII). Then, in a crankpin arranged to be diametrically opposed to the eccentric and which will be used as an induction support, it will be necessary to insert on a rotational basis, a stem on which external gears will be mounted on each side, in this case, induction gears. The external gear will be inserted into an internal gear mounted rigidly in the side of the engine. The induction gear located on the inside will be inserted in a second internal gear arranged rigidly on the blade side. Accordingly, if the inside induction gear is twice as large as the outside induction gear, or yet again, if the internal supporting gear is twice as small as the external supporting gear, then the movement of the blade will be two times slower than that of the crankshaft. Accordingly, the result will be somewhat original in that it will produce the same travel as in the previous methods.

[0029] The same applies to the triangular piston which, in this way, will describe the same figure as in the case of it being supported by two induction gears.

[0030] However, investigation can be taken further, using this multiple-induction variant again: gears and crankshaft. However, this time, the movement of the blade will be reversed with respect to that of the crankshaft, by means of a pinion. This time, we will obtain the rotation of parts similar to that produced by the triangular engine (FIG. XIII). Indeed, it can be assumed that we have a blade in which the eccentric of a crankshaft is inserted so as to rotate. Then, rigidly on this crankshaft, we will mount a supporting gear itself inserted into a swivel gear mounted to rotate in the engine block. Then, it can be imagined that this swivel gear will be coupled with a side induction gear mounted rigidly in the side of the blade.

[0031] In this way, the blade will move in the opposite direction to the eccentric and the crankshaft and in accordance with the rotation proportions i.e.: if the crankshaft turns at the same speed or twice as fast but in the opposite direction, we will obtain an engine whose cylinder is elliptical in shape or, yet again, and differently, an engine whose cylinder is triangular in shape.

[0032] Among the interesting spin-offs of this method, in which the eccentric of a crankshaft serves as a second support for the multiple-induction system, there is the idea of cutting the blade or triangular piston differently so that the eccentric is allowed to come directly into contact with gases on explosion. This method could produce maximum torque in this case (PHASE XXVI).

[0033] Now we have to deal with a final point, the induction of the power toward the outside the engine.

[0034] Naturally, this can be induced by the crankshaft. Otherwise, it can be induced by the support shaft which does not turn at the same speed as the crankshaft, or under the same speed as the blade (FIG. XXIV). A gear can be connected rigidly to the support shaft under output shaft can be inserted into this shaft to convey the power to outside the machine (FIG. XIX).

[0035] Finally, because the blade or the piston have an oscillating effect, it might also be possible to mount rigidly, in the side, an internal gear coupled with an external gear attached rigidly to a shaft. In this case, this shaft will convey the energy toward the outside (FIG. XXIV).

BRIEF DESCRIPTION FIGURES

[0036] FIG. I is a reproduction of FIG. VI of the invention filed for the “Energy machine III”, covered by Canadian patent number 1,229,749 filed on Mar. 18, 1985 under number 476,720 and issued on Dec. 1, 1987.

[0037] It shows the main friction points whereby the depositors designed supporting mechanisms to eradicate these friction points.

[0038] FIG. II is a diagram of two circumferences, the first fixed and the second rotating about the first. In this figure, it can be seen that geometrically, the path that will be covered during the rotation of the second circumference, by a point located on the latter. The path taken by this point will produce an almost circular form corresponding exactly to what the depositor wanted, that is, to be similar to the path taken by the ends of the blade.

[0039] FIG. III shows a motor whose mechanicals are a materialisation of the geometry previously indicated in FIG. II. Here, the circumferences are replaced by gears. Indeed, two gears, referred to as induction gears, are inserted so as to rotate in a gear, referred to as the supporting gear, attached rigidly to the engine. These two induction gears are held by a support mounted to rotate in the side of the engine. The blade is attached by a means to these induction gears. Accordingly, the blade describes the almost circular movement as desired. In this figure, the parts are situated during inlet and expansion.

[0040] Figure IV shows a transversal section of an engine similar to that of Figure III but whose parts are in the explosion phase and at the end of inlet.

[0041] Figure V is a similar view to the previous one but the parts have been placed in a position halfway along the path between the two pistons.

[0042] Figure VI shows a geometrical form of one embodiment of multiple-induction in which the induction circumferences are twice as small as the supporting circumferences. The shape described by a point placed on these swivelling and rotating circumferences is similar to that of a FIG. 8.

[0043] Figure VII is a materialisation of the geometry of Figure V. Here, it can be seen that the blade is replaced by a triangular piston. Each point of the triangle adheres constantly to the entire surface of the cylinder which has the shape of a FIG. 8. Notes that even if the piston is triangular, the engine can be constructed with a double support. The result is that the supporting shaft to which the piston is rigidly attached will not be in a similar position during each of the explosions. Here, the supporting shaft is centred accurately with respect to the explosion surface at the time of the explosion.

[0044] Figure VIII shows an engine similar to that shown in the previous figure but during a subsequent explosion where it will be seen that the supporting shaft is in a different position so that each gear is at its maximum elevation at the same time.

[0045] Figure IX shows an engine similar to those of the two previous figures but in which the parts have been placed in the expansion phase.

[0046] Figure X shows the geometrical shape obtained by the induction circumferences which, this time, are three times as small as those of the support. The shape of the movement obtained will then be similar to that of a cloverleaf.

[0047] Figure XI is the materialisation of an engine whose cylinder has a similar shape to that obtained in the previous figure. Here, the blade is in the explosion position and at the end of inlet.

[0048] The second part of the figure involves embodiments of multiple-induction engines but in this case, not obtained only by external gears but also involving internal gears.

[0049] Figure XII shows the movement of a point on an induction circumference rotating within a circumference. In this case, the inside circumferences is three times smaller.

[0050] Figure XIII materialises the geometry depicted in the previous figure, resulting in the construction of a triangular engine. The engine has been placed in the explosion and end of inlet phase.

[0051] Figure XIV is similar to the previous figure but the engine is shown in the expansion phase.

[0052] Figure XV shows the rectilinear path covered by a circumference whose magnitude is twice as small as the outside circumference, within which it swivels.

[0053] Figure XVI is a materialisation of Figure XIV. It will be seen that a double-head piston has been attached to the induction gear.

[0054] Figure XVII is a more detailed representation of the previous figure including systems of valves, drive calibration, electricity, etc.

[0055] Figures XVIII and the following represent embodiments of multi-inking engines including the production and the use of a crankshaft among the means of induction.

[0056] Figure XVIII represents a multi-inking engine in which one of the two gears is a crankshaft while the other is a gear. An additional kingpin mounted on the crankshaft will serve as supporting shaft which, through the use of an induction shaft, will introduce the specific movement of the blade with respect to that of the crankshaft. Here, the movement of the blade will be induced in the same direction as that of the crankshaft.

[0057] Figure XIX represents the construction of a figure of eight engine, using the same process.

[0058] Figure XX represents a multiple-induction and reversed engine in which the movement of the blade is in the opposite direction to the crankshaft. This reversal is obtained by a supporting pinion. This is a reversed manner of producing a triangular engine.

[0059] Figure XXI shows an engine in which two complete systems have been reversed, turning in the opposite direction to one another. Accordingly, one system becomes equipment to the reversal pinion of the other and vice versa. This manner of operating saves on many parts and increases the torque of the engine.

[0060] Figure XXII shows concave shapes obtained depending on whether the blade attaching point is on the induction gears, inside the circumference lines.

[0061] Figure XXIII represents convex shapes obtained by placing the blade attachment point outside the circumference of the induction gears.

[0062] Figure XXIV shows an engine whose induction, towards the outside, is obtained from a shaft inserted into the support shaft.

[0063] Figure XXV shows an engine whose induction is generated directly from the blade, which is inserted into a central shaft by means of an external gear.

[0064] Figure XXVI shows how to take advantage of these mechanisms by cutting out the blade so that the crankshaft surface is directly exposed to the effect of explosion.

DETAILED DESCRIPTION OF THE FIGURES

[0065] Figure I is a reproduction of figure VI of the invention by the depositor for an “Energy Machine III”, covered by Canadian patent number 1,229,749, filed on Mar. 18, 1985 under number 476,720, issued on Dec. 1, 1987.

[0066] The figure depicts the main components: the engine block 1, the engine cylinder 2, the rotary core 3 arranged to rotate in the engine, blade 4 inserted to slide in the core and rings 5 inserted to float at each end of the blade. It can be seen that the main friction points are located between the rings and the housing of cylinder 6 because the output of one blade end is activated by the thrust of the other end against the surface of cylinder 7. A second friction point consists of the part situated between the blade and the core of engine 8. The thrust of the gases against the blade establishes a force contrary to that of the resistance of the crankshaft to which the central core is attached, generating this friction.

[0067] Figure II shows 2 circumferences of the same size, referred to as the fixed circumference 9 and the rotary circumference 10. The swivelling of this rotary circumference can be seen in three different steps, 11, 12, 13. If we assume that this rotary circumference 14 is at a fixed point, through its displacement, we can draw the path that the point will take after one full rotation about the supporting circumference. This gives an almost circular form, corresponding to the form desired.

[0068] Figure III represents a diagonal view of a multiple-induction machine the mechanism of which is a materialisation of the geometry shown in the previous figure. Here, the fixed and rotary circumferences have been replaced by gears, which we will name respectively supporting gears 16 and induction gears 17. More specifically, a supporting gear will be connected rigidly to the body of the engine, indirectly by attachment to a fixed shaft 18. Around this fixed shaft, between the engine side and the supporting gear, a device will be assembled to support the induction gears and which will be referred to as supporting crankshaft 19. Each end of the supporting crankshaft will be provided with a supporting kingpin 20 which will be provided with a device, such as a shaft 23, to which the induction gears 21 will be attached in such a way as to rotate. The induction gears mounted to rotate at the end of each kingpin will be arranged so that they are also inserted into the induction gears; accordingly, during the rotation of supporting crankshaft 23, they will be forced to turn about themselves 21. Each of the induction gears will be provided in turn with a device such as an induction shaft 22, attaching it in the semi-rotational manner to the blade. Accordingly, the blade will be driven inside cylinder 24 and will be supported at all times in such a way that the rings 15 inserted at either end of the blade may be floating, and fit without any induced frictions against the walls of cylinder 2 of the machine or engine.

[0069] Figure IV shows a transversal section of an engine similar to that of Figure III and whose parts have been placed, depending on the side of the blade being referred to, either in the explosion phase or in the end of inlet phase. More specifically, in this figure, it can be seen that the body of machine 1 in the end of inlet phase. More specifically, this figure shows that the body of machine 1 contains a cynical chamber. Two induction gears 17 mounted to rotate at the end of the supporting kingpins are inserted into supporting gears 16. Each part of the blade is attached to an induction shaft mounted on the supporting gears. In this figure, the two supporting shafts reach the lowest point of their path at the same time and, accordingly, the blade is brought into a horizontal position while gas chamber 26 is compressed to the minimum, permitting explosion to take place. Conversely, on the other side of the blade, the opposite happens because the inlet chamber 27 is distended to its maximum meaning that we have reached the end of gas inlet.

[0070] Figure V is similar to Figure IV but the parts are midway between the two positions. It will be seen that unlike the previous figure, the induction shafts are both at their highest level at the same time, simultaneously with the blade being found in the vertical position.

[0071] Figure VI represents a geometrical form prior to the attainment of multiple-induction in which induction circumferences 18 are twice as small as the supporting circumference. In the same way as for the previous embodiments, it must be assumed that the induction circumferences turn by swivelling about the supporting circumference. The form described by a point on one of these induction circumferences will be similar to that of a figure of eight 29.

[0072] Figure VII is a materialisation of the geometry of Figure V. The engine is shown from the gear side to better display its operation. In the same way as the previous embodiments, two induction gears 17 are mounted to rotate at the ends of a kingpin 20 which itself rotates in such a way that they are simultaneously inserted into a supporting gear 16. Here, the induction shafts 22 are connected more specifically to a triangular piston 25 replacing the blade of the previous figures. Each end of this piston will be provided with floating rings 5 which, at all times, will follow the movement of the piston and the figure of eight cylinder 29. Similarly, it will be seen that if the piston is triangular, it will be possible to obtain a double support engine. Accordingly, the supporting shaft to which the piston is rigidly attached will not be in a similar position on each of the explosions. In this case, the supporting shaft is indeed centred on the explosion surface during explosion 30.

[0073] Figure VIII figuratively depicts the position of the parts in the two subsequent explosions. It will be seen that even if induction kingpins 20 are not vertical 31, 32, the two induction shafts will be at their highest level, permitting, even if disymmetrically, the second and third faces of the triangular piston to reach their highest point.

[0074] Figure IX shows a similar engine to those of the two previous figures but in which the parts have been placed in the expansion phase, that is, between two explosions. It can be seen that the induction shafts 22 are in their lateral position 34, permitting the engine torque to be generated. It will also be seen, and this is particularly important in terms of torque, that the anti-torque device is normally on the side opposite the movement of the parts and that the negative thrust 35 thus generated is eradicated by the locking mechanical key produced by the lifting of the induction gear on the left. Indeed, the opposed directions of movement of the parts 36, 37 and 38 form a mechanical contradiction working like a natural anti-return of the triangular piston. Indeed, the left-hand part of the piston is naturally affected by the anti-return mechanical locking and no longer needs compensation on the other side of the torque. Therefore, the engine torque is doubled because there is no expenditure of energy needed to cancel out the counter-torque.

[0075] Figure X represents a geometrical form attained by the induction circumferences 10, this time three times smaller than the circumferences of support 9. Accordingly, as for the previous mechanisms, by turning the induction circumferences about the circumference of the support, and following a point located on it, 14, it is possible to obtain a shape similar to that of a cloverleaf 39 and which may be beneficial in an engine application.

[0076] Figure XI is the materialisation of an engine whose cylinder has a similar shape to that obtained in the previous figure. Here, blade 4 is in the explosion and end of inlet position because the part on one side of blade 26 is minimised whereas, conversely, the opposite part 27 faces the widest cylinder part. The dotted lines of the figure represent the successive movements of blade 50.

[0077] Figure XII shows the movement of a point situated on induction circumference 10 that, this time, turns within a circumference of support 9. Here, the circumference on the inside, the induction circumference, is three times smaller than the supporting circumference. The resulting movement of a chosen point on the circumference chosen on the inside, because this is the circumference it will now be rotating, after one complete revolution, that is, three revolutions about itself, will be similar to the form of a triangle 40. Note that the rotation movement of the inner circumference 40, because it follows the outer circumference, will be in the opposite direction to its swivelling 41.

[0078] Therefore, it is important to distinguish between rotation and swivelling.

[0079] Figure XIII materialises the geometry explained in the previous figure and which leads to the construction of a triangular engine. The engine has been placed in the explosion and end of admission phase. As in the previous embodiments, the induction kingpins 20, attached to a crankshaft 19, arranged to rotate 23 in the side of the engine, support at either end induction gears 17. But here, however, instead of being inserted into an external supporting gear 16, they are more specifically inserted into a supporting gear 16 of the internal gear type, reversing the swivelling direction 21b). Here, the engine parts have been placed in their explosion phase. The combustion chambers 26 are therefore between the triangular cylinder side and blade 41 the blade is parallel to it.

[0080] The figure XIV refers back to the previous figure but in which the engine is in the expansion phase, in this case midway between two explosions. It will be seen that the parts between the blade and the triangular cylinder 51 have been enlarged under the force of the explosion. It will be seen that the direction of rotation of blade 52 is similar to that of the supporting crankshaft 53.

[0081] Figure XV shows the rectilinear path taken by a point 14 located on an induction circumference 10 whose magnitude is twice as small as the supporting circumference within which it swivels about itself.

[0082] Figure XVI is a materialisation of figure XIV. Indeed, it is assumed that an induction gear 17 mounted to rotate at the end of a supporting kingpin 10 is being used. It is also assumed that the supporting kingpin is attached rigidly to supporting crankshaft 19. The induction gear 17 is inserted in a supporting gear 16 of the internal type whose size is twice as large as its own. The induction shaft 34, connected to induction gears 17, is then connected to a crankshaft 55 each end of which is provided with a piston 56. The rectilinear to and from movement of the induction shafts will result in the successive in and out movements of the pistons in their respective cylinders 57. In addition, it is a way of isolating the lower part of each cylinder 58 so as to produce within it the low compression needed for the two-stroke engines. This is made possible by the solely rectilinear movement of the connecting rod. Therefore, it allows the reproduction of the operation of two-stroke engines, supplied with gas alone.

[0083] Figure XVII is a more detailed representation of the previous figure including the system of valves 59, carburation 60, drive calibration 61, and electricity, etc. More specifically, as far as driving is concerned, a more complete embodiment of the invention suggests that the driving of the engine from one side would result in several stoppages, both in terms of the driving of the parts towards the outside and, on starting, from the outside toward the inside. Therefore, when it is intended to assemble the engine in three dimensions, it is well worth doubling the system on each side, to some extent, that is, to install 2 induction crankshafts and kingpins, and connect them indirectly and by virtue of a balancing shaft 62. This shaft, arranged to rotate inside the engine, will be provided with a gear 63 at either end, inserted into respective gears 64 placed on the crankshaft. This balancing shaft may also be considered as a way of conveying energy to the outside 65. A pivot gear 66 can also be placed on the shaft and be inserted into another one, ignition shaft 67 placed on a stem at the end of which the components needed for ignition are installed. The lower inlet chambers can be provided with valves 59 and connected to a carburetion system 60 thus producing two-stroke type carburetion, but on gas alone.

[0084] Figure XVIII represents a multiple-inking engine one of the two inkings of which is a crankshaft 69 while the other is a set of gears. A crankshaft, provided with an eccentric 70, is inserted to rotate in a compression device such as a blade 4. An additional induction kingpin 19 is mounted on the crankshaft at 180 degrees from the direction of the eccentric. An induction shaft 24 will be inserted to rotate in the induction kingpin and will be attached rigidly at either end to induction gears 17. The induction gears on the outside will be inserted into a supporting gear 16 of the internal type, arranged rigidly in the side of the engine. As far as the gear on the other side of the induction shaft is concerned, it will be inserted into a supporting gear 16b) of the internal type, arranged rigidly in the side of the blade. The side supporting gear 16b) of the internal type, will be arranged rigidly in the blade side. The dimensions of the two assemblies will be calculated so that the inside gear is twice as small as the outer assembly. Accordingly, the movement of the blade will be induced in the same direction as that the crankshaft but at a speed two times slower than the crankshaft. Indeed, when the crankshaft turns under the effect of the insertion of the outer induction gears 17 into the outer supporting gear, the induction shaft will turn in the opposite direction 73, causing a reduction of the speed. The opposite part of the induction shaft, provided with the internal induction gear, will cause speed reduction, driving the internal supporting gear connected rigidly on the blade side and, accordingly the blade, but at a lower speed. In this way, the blade will describe the desired movement, obtained by the initial means indicated in the previous figures.

[0085] Figure XIX, obtained through a similar process to that of the previous figure, produces a figure of eight engine. Indeed, the eccentric of a crankshaft 69 can be connected to rotate, in this case, with a triangular piston 20b), and arranged to drive an induction shaft 24 with an induction kingpin 19 placed at 180 degrees from the direction of eccentric 70. Then, this induction shaft can be provided at either end with an induction gear 17. The outer gear will be inserted into an inner gear 16, arranged rigidly in the side of the engine. The inner gear 17b) of the induction shaft will be inserted into an inner gear 16b) arranged rigidly in the side of the triangular piston. This is a way of controlling the movement of the triangular piston compared to the movement of the crankshaft. Naturally, once again, it will be necessary to calibrate the two sets of gears so that the rotation of the triangular piston is twice as slow as that of the crankshaft if the piston movement is to comply with the figure of eight shape of the cylinder. In this way, all the parts of the piston surface will activate the crankshaft, either through the crankshaft itself, directly, or through the induction kingpin.

[0086] Figure XX represents a multiple-induction inverse engine in which the movement of blade 4 is contrary to that of crankshaft 19. This reversal is used by having an inner gear on one side of the induction shaft and an outer gear on the other side. In an inverse manner, this is a way of obtaining a triangular engine. To do this, crankshaft 19 is fitted with an eccentric 70 and is arranged to rotate in the housing of the engine. Then, a blade is coupled to turn partly about this eccentric. Subsequently, on the crankshaft, a drive gear 75 is mounted rigidly, coupled with an a reversal gear 73 which is arranged rigidly on a reversal shaft 74 mounted to rotate in the engine housing. The inverse part of this gear will be coupled with an induction gear 16b) of the internal type, mounted rigidly in the side of blade 4. In this way, it will be possible to calibrate the gears so that the blade turns twice as slow as the eccentric; the two movements will be in the opposite directions. Indeed, the movement of crankshaft 80 reverses the reversal gearing 81 which, in turn, will cause the blade to be moved in the opposite direction 82. The result of these two contrary movements will enable the blade to skim over the shape of the triangular engine while holding each end of the blade constantly pressed against the wall of the cylinder.

[0087] Figure XXI represents an engine whose two systems induce one another. Accordingly, one system becomes equivalent to the pinion of the other, saving on a number of parts and increasing engine torque. Moreover, according to these explanations, we believe that the systems can be designed in such a way that the speeds of the parts complete one another. Accordingly, it could be assumed that an initial crankshaft 69 on which an eccentric 70 is mounted with a blade drive gear 75, or a triangular piston, could be used. We could then imagine that the first crankshaft is pierced through end to end and in turn is traversed by a second crankshaft 69b). The second crankshaft will also be provided with an eccentric 70b). However, part of the second crankshaft will be thinned so that it passes through the first crankshaft over its length 76. The induction gear 75b) of the second crankshaft, in this case, will be attached rigidly to it, but on the other side of the eccentric of the first crankshaft. Accordingly, each of the two systems, consisting of the induction gears of one of the crankshaft and the eccentric of the other, will be suitable for coupling to a blade. In each case, the blade will be mounted on one of the two eccentrics and internal gears will be inserted into the opposite crankshaft induction gears. Accordingly, the movement of one system will induce that of the other. If the first crankshaft is assumed to be rotating in a direction 90, it will induce the rotation of the blade in the same direction 91. However, the rotation of the drive gear, in the same direction 92, will result in the movement of the second blade but twice as slowly. In turn, the second moving blade will drive the eccentric of its own crankshaft twice as fast and the latter, with its gearing, twice as small as the first blade induction gearing, will drive it twice as slow in total harmony with the movement of its own crankshaft. In this way, not only does it reduce the number of parts, but also increases the torque. For each blade, it will be seen that the energy is captured by the parts, at two places, for transmission toward the outside.

[0088] Figure XXII represents concave shapes obtained depending on whether the attachment points of the blades are on the induction gears within the circumference lines.

[0089] Figure XXIII represents concave shapes 110,111,112, obtained by placing the attachment points of the blades outside the circumferences of the induction gears. The movement exceeds that of the shape originally obtained, both on the outside and the inside.

[0090] Figure XXIV shows an engine whose induction toward the outside is obtained from a shaft inserted into the support shaft. Indeed, on the crankshaft, there is an external drive gear 75 which will be inserted into an externalisation gear 93, arranged rigidly and firmly on a shaft 94 mounted to rotate through the engine housing and conveying power to the outside.

[0091] Figure XXV shows an engine whose induction is generated directly from the blade which is inserted into a central shaft 19 by means of an internal gear 94.

[0092] Figure XXVI shows how to take advantage of these mechanisms by cutting out the blade, or the triangular piston, so that the surface of the crankshaft eccentric is directly exposed to the explosion. The same cut-outs can be made in the triangular piston.

Claims

1. A machine, like a compressor or engine, the composition of which includes: a machine housing containing a cylinder into which a blade is inserted so as to partly rotate, a supporting kingpin, installed to rotate in the machine housing and each end of which is provided with an induction device, such as an induction shaft, a means of induction, such as induction shafts, arranged so that each end of the induction kingpin on which the induction gear is mounted rotate, induction gears to which the blade will be attached directly, or by a device, and to which the supporting gears will be coupled, a supporting gear of the same size as the induction gears, arranged rigidly in the engine so that they are coupled with the supporting gear and so that, on their diameter, they have a means of attachment to the blade, a blade which is attached directly or by a device to the gears mounted on the induction shafts, will be inserted so as to rotate partly in the machine cylinder.

2. A machine according to claim 1 whose induction gears will have a diameter twice as small as that of the supporting gear and, accordingly, whose piston will be triangular in shape and whose cylinder will be in the form of a FIG. 8.

3. A machine according to claim 1 whose induction gears will have a diameter three times as small as that of the supporting gear and, accordingly, whose piston will be in the shape of a blade and whose cylinder will be in the form of a cloverleaf.

4. A machine according to claims 1, 2 and 3, including a composition of several explosion systems.

5. A machine according to claims 1, 2 and 3 whose induction shaft is rigidly connected to the induction gears and is inserted to rotate in the ends of the supporting kingpin.

6. A machine, like a compressor, or engine, comprising in its composition: a machine housing containing a cylinder in which a blade will be inserted to partially rotate, a supporting kingpin inserted to rotate in the machine housing and each end of which is provided with a means of induction, such as an induction shaft. Means of induction such as induction shafts, arranged at either end of the induction kingpin and on which induction gears are mounted to rotate, induction gears whose circumference will be three-quarters that of the supporting gears, attached directly or through a device to the blade and coupled to the supporting gear in such a way that they are both coupled to the supporting gear and have a means of attachment to the blade on their diameter, a supporting gear of the internal gear type arranged rigidly in the engine, a blade which, attached directly or by a device to the induction shaft gears, will be inserted to partly rotate inside the machine cylinder, an almost circular cylinder in which the blade movement will be almost rotational.

7. A machine according to claim 4 whose induction gearing will be twice as small as the internal supporting gears and whose induction shaft, moving rectilinearly, will be attached by a device such as a connecting rod, to conventional systems.

8. A machine according to claim 4 whose induction gears will be three times as small as the internal supporting gear and whose blade will produce an almost triangular movement, inserted into an almost triangular shaped cylinder.

9. A machine like a compressor or engine including in its composition: a machine housing containing a cylinder into which a crankshaft is inserted to rotate, provided with an eccentric; a supporting kingpin mounted rigidly and preferably running in the opposite direction to the eccentric on the crankshaft, designed to include a means of induction, such as an induction shaft. A means of induction such as an induction shaft arranged to rotate in the induction shaft and provided at each end with an induction gear, induction gears at each end of the induction shaft, one coupled with the gears supporting the engine and the other with the gears supporting the blade, a supporting gear arranged rigidly in the machine housing and coupled to the induction gears outside the induction shaft, supporting gears arranged rigidly on the blade side and coupled with the induction shaft internal gears, a blade arranged to rotate partially in the engine cylinder in which the crankshaft eccentric will be inserted to rotate and whose supporting gears will be connected to the internal induction gears, support gears of the internal gear type arranged rigidly in the engine, a blade, attached directly or by a device to the induction shaft gears, inserted to rotate partially in the machine cylinder, an almost circular cylinder in which the near-rotary movement of the blade will take place.

10. A machine according to claim 9 whose piston is triangular in shape and whose cylinder is in the form of a figure of 8.

11. A machine like a compressor or engine whose composition includes: a machine housing containing a cylinder into which a crankshaft with an eccentric will be inserted to rotate, a supporting kingpin installed rigidly and preferably in the opposite direction to the crankshaft eccentric; this kingpin will be provided with a means of induction such as an induction shaft. A means of induction such as an induction shaft, arranged to rotate in the induction shaft and the end of which is provided with an induction gear, an induction gear twice as small as the blade induction gear and coupled with the supporting gear, a supporting gear arranged to rotate in the housing of the machine and coupled to the induction shaft induction gear on the one side and to the induction internal gear on the blade side on the other, an induction internal gear arranged rigidly on the blade side, a blade arranged to turn partly in the engine cylinder in which the crankshaft eccentric will be inserted to rotate and whose induction gears are coupled with the supporting gears, supporting gears of the internal gear type arranged rigidly in the engine, a blade which, attached directly or by a device to the induction shaft gears, will be inserted so as to rotate partially in the machine cylinder, an almost circular cylinder in which the almost rotary movement of the blade will take place.

12. A machine according to claim 11 in which the size of the crankshaft induction gears is one-third compared to the size of the blade induction internal gears and whose cylinder is triangular in shape

13. A machine, such as a compressor or engine whose composition includes: a machine housing incorporating two systems whose movements are in opposite directions with: a first crankshaft mounted to rotate in the machine housing and provided with an eccentric as well as an induction gear, which crankshaft is perforated through from one end of the shaft to the other so as to allow passage for a secondary crankshaft, an initial blade arranged to rotate in the engine cylinder and connected to the eccentric of the first crankshaft on the one hand, and whose induction gears arranged rigidly in its side, will be coupled to the second crankshaft induction gears on the other hand, a second crankshaft passing through the first crankshaft and provided with an eccentric to which the second blade is coupled, as well as an induction gear coupled to the internal into action gear of the first blade, a second blade amounted to rotate in a second cylinder of the engine, mounted to rotate on the eccentric of the second crankshaft which blade is coupled, by means of it internal induction gear, to the first crankshaft induction gear.

14. A machine according to claims 1, 4 and 9, having a convex movement.

15. A machine according to claims 4 and 9, having a concave movement.

16. A multiple-inking machine whose external induction is carried out by a shaft connected to a kingpin.

17. A multiple-inking machine whose induction toward the outside is through a crankshaft

18. A multiple-inking machine whose induction toward the outside is carried out from internal induction gearing coupled to a transversal shaft.

19. A machine whose blade or piston has cutouts designed to allow the surface of the crankshaft eccentric to be exposed directly to the effects of combustion