US1050162A - Magneto ignition system for internal-combustion engines. - Google Patents
Magneto ignition system for internal-combustion engines. Download PDFInfo
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- US1050162A US1050162A US59384910A US1910593849A US1050162A US 1050162 A US1050162 A US 1050162A US 59384910 A US59384910 A US 59384910A US 1910593849 A US1910593849 A US 1910593849A US 1050162 A US1050162 A US 1050162A
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- PXHVJJICTQNCMI-UHFFFAOYSA-N Nickel Chemical compound [Ni] PXHVJJICTQNCMI-UHFFFAOYSA-N 0.000 description 8
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- 229910052759 nickel Inorganic materials 0.000 description 4
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- 230000000979 retarding effect Effects 0.000 description 1
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F02—COMBUSTION ENGINES; HOT-GAS OR COMBUSTION-PRODUCT ENGINE PLANTS
- F02P—IGNITION, OTHER THAN COMPRESSION IGNITION, FOR INTERNAL-COMBUSTION ENGINES; TESTING OF IGNITION TIMING IN COMPRESSION-IGNITION ENGINES
- F02P7/00—Arrangements of distributors, circuit-makers or -breakers, e.g. of distributor and circuit-breaker combinations or pick-up devices
- F02P7/10—Drives of distributors or of circuit-makers or -breakers
Definitions
- My invention relates to an ignition system of the high or low tension variety for explosion engines of the multi-cylinder type; that is, for engines having two'or more than two cylinders. Its object is to produce ignition in regular sequence in the cyllnders of such an engine by means of a single source of electricity comprising an electrically-conductive path formed of generating elements preferably in the form of windings in which the current is generated, and to which the igniters of the engine may be connected Without the use of a distributer or circuit controller having fixed and movable contacts such as has heretofore been used in the circuits of most ignition systems that have proved to be of practical importance.
- Fig. 1 is a diagrammatic illustration of the, ordinary low tension ignition system now employed, including thedistributer;
- Fig. '2 shows my improved ignition system in outline, the distributer being omit ed, and all the spark points being connected at one time to the internal or generating portion of the ignition circuit system located within the source of electric energy;
- Fig. 3 and Fig. 4 are explanatory diagrams; ig. 5 shows a magneto embodying my invention; Fig. 6, Fig. 7 and Fig. 8 show the magneto in different operative positions; Fig.
- FIG. 9 shows in side elevation the magneto and pole pieces (the latter being in dotted lines) of the magneto shown in Figs. 5, 6, 7, and 8;
- Fig. 10 shows a side elevation of the armature of the magneto and a support therefor;
- Figs. 11 and 12 are views similar to Figs. 3 and 4, showing an embodiment of the principle governing my invention in an arrangement ofprimary and secondary windings;
- Fig. 13, Fig. 14., and Fig. 15 are explanatory views, showing how the principle governing my invention can be applied to an engine having more than two cylinders. On all the views, the same reference characters are employed to designate like parts.
- the letter C represents the generating coil of a low tension magneto of the ordinary type.
- One end of this coil is connected through ground or in any other Way to the terminals of a number of low tension spark plugs P, as shown, these plugs being preferably of the magnetic type, and the other terminal of this coil is arranged to be connected at the proper instant to each one of the insulated terminals of the spark plugs in turn by means of a rotating distributing arm D.
- the parts of the mag neto are not illustrated, and it is not be-' .lieved to be necessary that they should be. .
- the object of this figure is simply to show in diagram a low tension ignition system.
- Figs. 3 and 4 illustrate the principle controlling the above operat-ion.
- 1, 2, 3 and 4 are four sections of a coil of wire, the four sections making a continuous generating winding, corresponding to the coil W shown on Fig. 2.
- Each of these sections consists of the same number of turns of the same sized wire; and each turn is to have such a shape that it will inclose a figure of the same outline or periphery and of the same cross-sectional area so that the inductance and resistance of all the sections are equal. For example, if the turns are wound circularly, all the circles would have the same diameter.
- Sections 1 and 4 will now be in series, and sections 2 and 3 in series. Sections 1 and 4, however, will now be in parallel with sections 2 and 3. All of the electrical conditions described in connection with Fig. 3 will now be reproduced, but on account of the changed electrical relations of the sections all of the current now passes to the igniter B, and none at all to the igniter A, even if the conductor connecting A to the points a: and 1 is not interrupted. This is because the drop between the points 7) and 1 is the same as the drop between the points I) and m, and no difference of potential exists between the points .02 and 3 to which the igniter A i s' co'nneeted. By such an. arrangement of circuits,-
- the igniters may remain permanently cons nected to the source of electrical energy, and no distributer is needed to control the' passage of the current. Further all the generating elements or. windings are simultaneously enrotatable unit.
- igniter-s A and B will be located in difi'erent engine cylinders.
- Figs. 5, 6, 7, and 8 show amagneto embodying the principle illustrated in Figs. 3-
- This magneto has s'emicircular'mag nets M bent in the form of a. semicircle, and assembled with their like poles adjacent, so as to form a complete circle.
- the magnets M are fastened to pole pieces of soft iron N and S, eacli of which has two polar projections H and 8-8 respectively.
- Fig. 9 shows a side view of the magnets, and the inside polepieces.
- the polepieces N and S are fastened at one end to'a disk F which has a hub H to receive a drivlng shaft 1.
- a cam ring R which has four cam projections to. operate the timer lever L.
- Fi 10 is a side view of the armature, which is fastened at the right to the ring 1', which is bolted or fastened in any other way to the support K.- This supportalso carries the interrupter lever as shown.
- Support K has an. aperture shown in dotted lines therethrough', to give passage for the armature wires, whichare led out through the hollow interior of the armature E.
- the ring 7* serves as a bearing support for the ring Eon the magnets, and the left end of the armature can be conveniently supported in a recess in the disk F when the parts are assembled.
- the operation of as-- sembling is accom lished by simply inserting the armature into the space between the polepieces N and S, till the ring R rests upon and surrounds the ring 7*.
- Figs. 11 and 12 show views similar to Figs. 3 and 4, but with both primary .and secondary windings.
- the arrows and reference characters correspond to those on Figs. 3 and 4, and a jump spark is obtained at the spark gaps B and A whenever the circuit through the conductor a, b, or through the conductor m y is broken.
- a jump spark is obtained at the spark gaps B and A whenever the circuit through the conductor a, b, or through the conductor m y is broken.
- Figs. 13, 14 and 15 illustrate amethod of eflecting ignition inregular sequence in the cylinders of an engine having more than These three views have reference to a three cylinder engine.
- Six sections are employed, indicated by 1. 2 3, 4, 5 and 6. The points between these six sections are connected by con ductors'a d,
- each of the sections will be designed to have the same resistance and the same inductance, exactly as inthe preceding cases.
- the same electrb-- motive force be generated in each of the six sections by the same number of lines of force threading through them in the same instant of time.
- the six sections are all wound in the same direction around" the ring, and the direction of the magnetic" flux is'such that the E. M F.s of the section 1, 2 and 3 are in series, and those of the sections 4, 5' and 6 are in series; but the first three sections are in multiple with the second three.
- the sections of the generating windings constitute but a single generating source, and all the igniters may be directly connected thereto at each ignition period, the passage of the current to the proper igniter being automatically controlled without the use of a distributing circiiit controller of any kind; Further, the generating elements or windings which form the electrically-conductive or generating path through the magneto are so connected to one another and .to J the ig'niters as to cause current to pass from all of the generating elements to each igniter in turn at successive instants of ignition.
- the embodiment of my invention set forth in Figs. 13, 14 and 15 may be wound with low tension wiring, inv which case low tension igniters, preferably of the magnetic break type will be connected at A, B and C; while if high tension effects are to be produced, primary and secondary windings will be employed after the manner set, forth on Fi s. 11 and 12.
- the secon ary sections will be located on the armature in inductive relation to the six low tension-or primary sections 1, 2, 3, 4', 5 and 6.
- the magnets constitute primarily the means for creating an elect-romotive force in the windings; the arrangement of'pole: pieces on the magnets and the armature constitute means for controlling the action of .the magnetic field, so asto change the parallel relationsof the winding sections; while the magnets and thepolepieces thereon and on the armature together constitute means for generating current in such. a way as to cause current to pass to a different igniter at successive instants of igmtion. It is to be further observed that in all the forms ofelectric generating means indicated, the
- winding sections constitute an electrically conductive multiple path in which current is generated to supply the igniters with elec-' 'tric energy. It is evident from the above description that no d stributer is needed in-my ignition tained by the manner in which current is generated in the-source of electricity; and" the actualemployment of a distributerfor similarcircuit controller in the-ignition circuits above described would not .interfere with or change in any way the action of the sections which make up the generating windings of the magneto.
- an ignition system for internal combustion engines the combination of a plurality of igniters, a source ofelectricity for supplying current to'said-igniters, and con-v ductors connecting-all of the said igniters to 66 the said source at each period of ignition,
- an ignition system for internal cornbustion engines the combination of a plurality of igniters, a source of electricity plying current to the said igniters, and conductors connecting all of the said igniters I to the said source of electricity at each period of ignition, said source having means for generating current in such a way as to cause the current to pass from all of said windings to a different igniter at successive instants of. ignition.
- an ignition system for internal com bustion' engines the combinationof a 'plu- .-rality 0t igniters, a source of electricity comprising generating windings for supplying current to said igniters, and. conductors permanently connecting all of the said igniters to said source of electricity, said no source having means for generating current in such a Way as to cause the current to pass to a different igniter ,at each successive instant of ignitio 7
- the combination of a plurality of igniters, a source of electricity comprising a set of windings for supplying current to said igniters, and conductors connecting the said source to all of the said igniters at each period of ignition, said source having means forgenerating electricity in such a Way as to cause the current to pass from all of said windings to a different igniter at each successive instant of ignition.
- a source of electricity comprising a set of windings for supplying: electricity to said igniters, and conductors l. pass from all of saidlwmdmgs to a difierent permanently connecting the said source to i all of the said igniterdsard source having means for generating electricity in such a lit way as to cause the current to pass trom all of said windings to a difierent ignlter at successive instants of ignition.
- said igniters at each period ofignitiomsaid source hav ng means for generating electricity in such a wayas to, cause current to igniter at each successive instant of ignition.
- an ignition system for internal combustion engines the combination of aplurality of igniters, a source of electricity comprising a set of generating windings for supplying current to said igniters, means for creating anelectromotive force in said windings, means for controlling the action of the first-named means to put certainot said windings in parallel with'the remainder or said windings,;at each period of ignition and for changing the parallel relations of the said windings at successive periods of ignition and means vfor connectlng all of the said igniters to the said source'at each ignition period, whereby the current will pass to a diflerent igniter at successive 11.
- thecombination of a thecombination of a.
- a source of electricity comprising a set of generating windings for supplying current to thesaid igniters, means for creating an electromotive force in the said windings, means for controlling the action of the first-named means to putcertain of said windings in arallel with the remainder of the said win ings at each period of ignition and for changing the parallel relations of the said windings at successive periods of ignition and means for connecting all of the said igniters directly and permanently to the said source,whereby the current will pass to a difierent igniter at successive instants of ignition.
- an ignition system for internal combustion engines, the combination of a' plurallty of 1gniters, generating windings or supplying current to the said igniters, said windings being closed on themselves, means for connecting all of the igniters directly and permanently to the said windmgs, said means joining the opposite terminals of the individual igniters to die-- metrically opposite points located at equidistant intervals in the closed circuit of said windings, means for creating electromotive forcesgm the generating windings, means for controlling the action of the creating being antenna means to put the electroruotive forces in the halves at thegenerating windings bounded by said diametrically. opposite points in parallel at each period ofignition and for shifting the terminal points of said halves'at successive periods of ignition, whereby all the 1 current passes to a difierent igmter at successive instants of ignition.
- an ignition system for internal combustion engines the combination of a plurality of igniters, generating windings comprising a: set-of sections for supplying current to'the said igniters, said windings individual igniters to diametrically opp'o-- site points located atequidistant intervals in the closedcircuit of said windings, means for creating electromotiye forces in the generating windings, means for controlling the action of the creating means to put 'the'electromotive forces in the halves of the genclosed on themselves, means for eoncrating windings bounded by said diav metrically opposite points in parallel at each period of ignition and for "shifting the'terminal points ofe said halves at successive periods of ignition, whereby all the current passes to a difierent igniter at successive instants of ignition.v
- a plurality of igniters generating windings comprising a set of sections for supplying current to the said igniters, said windings being closed on themselves, means for connecting. all of the said igniters siniultane-- ously to the said windings, said means connecting the opposite terminals of the individual igniters to diametrically opposite points located at equidistantflpoints in the closed'circuit of the said windings, means for creating electromotive forces in the gen crating wlndmgs, means for controlling the action of the creating means to put the elec-- tromotive forces in the halves of the gencrating. windings bounded by said diametrically opposite points in parallel at each period of ignition and for shifting the terminal points of said halves at successive periods of ignition, whereby all of the current passes to a different igniter at successive instants of ignition.
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- Ignition Installations For Internal Combustion Engines (AREA)
Description
w. P. NICKEL. MAGNETO IGNITION SYSTEM FOR INTERNAL COMBUSTION ENGINES.
APPLICATION .IILED NOV. 23, 1910.
1,050,162. Pafiented Jan.14,191 3.
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MAGNETO IGNITION SYSTEM FOR INTERNAL COMBUSTION ENGINES.
APPLICATION TILED NOV. 28. 1910.
Patented Jan. 14, 1913.
4 SHEETS-SHEET 2.
W. F. NICKEL.
MAGNETO IGNITION SYSTEM FOR INTERNAL COMBUSTION ENGINES. APPLICATION FILED NOV. 23, 1910.
. 1 050,162. Patented Jan.14,1913.
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MAGNETO IGNITION SYSTEM FOR. INTERNAL COMBUSTION ENGINES.
APPLICATION FILED NOV. 23, 1910. 1 ,O50,162, Patented Jan. 14,1913.
4 SHEETSSHEET 4.
-ILTIIILiII: 0 /::::::::::T::::::; R --7:----
E "Si- 9' S S S S -j-jj i;-:-1i-:i-:55----- M ug WITNESSES: v INVENTOR Y 741% 'fA/z UNITED STATES PATENT OFFICE.
WILLIAM F. NICKEL, OF BROOKLYN, NEW YORK.
maennro iGNIfIION SYSTEM FOR INTERNAL-COMBUSTION ENGINES.
To all whom it may concern:
Be it known that 1, WILLIAM F. NICKEL, a citizen of the United States, and a resident of the city of Brooklyn, in the county of Kings and State of New York, have invented certain new and useful Improvements in Magneto Ignition Systems forInternal-Combustion Engines, of which the following is a full, clear, and exact descr1ption.
My invention relates to an ignition system of the high or low tension variety for explosion engines of the multi-cylinder type; that is, for engines having two'or more than two cylinders. Its object is to produce ignition in regular sequence in the cyllnders of such an engine by means of a single source of electricity comprising an electrically-conductive path formed of generating elements preferably in the form of windings in which the current is generated, and to which the igniters of the engine may be connected Without the use of a distributer or circuit controller having fixed and movable contacts such as has heretofore been used in the circuits of most ignition systems that have proved to be of practical importance.
Moreover I seek to attain this end Without sacrificing any of the advantages incidental to ignition systems which employ the devices ,which it is my purpose to eliminate; such advantages being cheapness, simplicity, regularity and certainty of operation, facility in timing by advancing and retarding the spark, and others. vThese objects are attained, according to the best manner now known to me, by an arrangement of circuits which are supplied with current from a source of electric energy of the type above mentioned; and in which the connections, that is to say the conductors leading from the generating path through the electric source to the different igniters, may all be complete and unbroken at the moment when a spark is required in a certain cylinder, or at the times of all the events in the cycle of operations ofthe engine, the reed for a 'distributer thus being entirely obviated. It
is in this respect that my invention, which as above noted, relates to a high or loiv tension ignition system, diflers most radically from the ordinary systems now in use. In such systems, the spark plugs can not all be connected at one time to the generat- Specification of Letters Patent.
Application filed November 23, 1910.
Patented Jan. 14, 1913.
Serial No. 593,849.
Referring to the drawings, which exhibit an embodiment of my invention, and diagrammatically illustrate the principleenr ployed:Fig'ure 1 is a diagrammatic illustration of the, ordinary low tension ignition system now employed, including thedistributer; Fig. '2 shows my improved ignition system in outline, the distributer being omit ed, and all the spark points being connected at one time to the internal or generating portion of the ignition circuit system located within the source of electric energy; Fig. 3 and Fig. 4 are explanatory diagrams; ig. 5 shows a magneto embodying my invention; Fig. 6, Fig. 7 and Fig. 8 show the magneto in different operative positions; Fig. 9 shows in side elevation the magneto and pole pieces (the latter being in dotted lines) of the magneto shown in Figs. 5, 6, 7, and 8; Fig. 10 shows a side elevation of the armature of the magneto and a support therefor; Figs. 11 and 12 are views similar to Figs. 3 and 4, showing an embodiment of the principle governing my invention in an arrangement ofprimary and secondary windings; Fig. 13, Fig. 14., and Fig. 15 are explanatory views, showing how the principle governing my invention can be applied to an engine having more than two cylinders. On all the views, the same reference characters are employed to designate like parts.
On Fig. 1 the letter C represents the generating coil of a low tension magneto of the ordinary type. One end of this coil is connected through ground or in any other Way to the terminals of a number of low tension spark plugs P, as shown, these plugs being preferably of the magnetic type, and the other terminal of this coil is arranged to be connected at the proper instant to each one of the insulated terminals of the spark plugs in turn by means of a rotating distributing arm D. The parts of the mag neto are not illustrated, and it is not be-' .lieved to be necessary that they should be. .The object of this figure is simply to show in diagram a low tension ignition system.
using a distributer to close the circuit to the spark plugs in regular order,and to,
terminals of the wire generating coil W no current passes to the spark plug P on the left at all. At the next ignition period the current passes to the spark plug P on the left, and though the plug at the right may remain in the circuit with the generating coil, this plug produces no spark at this instant but remains absolutely inactive. This novel mode of operation depends upon the way in which the generating coil W is wound; and I attain the production of a spark, 'first at one plug, and then at the other, without-having to break the circuit to either, or employing a distributer to control the current, by winding the coil W in sections in the following manner.
I refer to Figs. 3 and 4, which illustrate the principle controlling the above operat-ion. On those two views, 1, 2, 3 and 4 are four sections of a coil of wire, the four sections making a continuous generating winding, corresponding to the coil W shown on Fig. 2. Each of these sections consists of the same number of turns of the same sized wire; and each turn is to have such a shape that it will inclose a figure of the same outline or periphery and of the same cross-sectional area so that the inductance and resistance of all the sections are equal. For example, if the turns are wound circularly, all the circles would have the same diameter. Now, let an electromotive force be generated in each section by means of a magnetic flux threading through the windings; this magnetic flux consisting of the' same number of lines of force for each of the four sections, and threading through each in the same instant of time. Further, let the distribution be such that the strength of the magnetic field or induction per square centimeter is the same for each of the four sections. Now, if this flux indicated by large arrowsthread through all the sections in the same direction, say from left to right, and if the sections are all wound in the same .direction in passing around the circuitof the four sections and back again, an equal electromotive force will be generated in each section, and these electromotive forces will all be in the same direction, that is, say from right to left. These electromotive forces are ineonea indicated on Fig. 3 by the-letters E E E and E and .the direction of the same is indicated by the arrows.
It follows from the above conditions that the resistance andthe inductance of each of the four sections will be equal. Consequently the currents due to the electromotive forces will also be equal for each one of the four sections. It will be noted, that when the electromotive forces all take the direction shown on Fig. 3, sections 1 and 2 will be in series, and sections 3 and 4 will be in series. Sections 1 and 2, however, will be in' parallel with sections 3 and 4. Current will consequently flow along conductor mg which connects points midway between sections 1 and 4 and .2 and 3, and across an igniter shown at A, if the voltage is high enough. Now the fall of potential, keeping in mind the above condi-' tions, from the point at to the point a will be half the fall or drop from the point d to the point a. As the drop from d to 0 is the same as the drop from c to f, the drop from the point d to the point a will equal the drop from the point e to the point I). As a result there will be no difference of potential between the points-a and b, and no current at this time-will fiow between points a and b. If the points a and b be connected at this time by an electrical conductor, no current will flow over this conductor. If this conductor lead to the sparking points of a gas engine igniter, this igniter will remain inactive, and no distributer will be needed to break the circuit and cut out this igniter, which is indicated at B- All the current will pass across at the device A, as above described. Next, let an electrometive force be generated in each of the four sections as before. Let the magnetic flux take the same direction in two of the sections, say the sections 2 and 4; but let the flux be reversed in sections 1 and 3. The electroinotive forces in the two sections 1 and 3 will likewise be reversed in consequence, while theelectromotive forces in the other two sections are in the same direction as in the former case. The reversals mentioned are indicated by the arrows on Fig. 4. Sections 1 and 4 will now be in series, and sections 2 and 3 in series. Sections 1 and 4, however, will now be in parallel with sections 2 and 3. All of the electrical conditions described in connection with Fig. 3 will now be reproduced, but on account of the changed electrical relations of the sections all of the current now passes to the igniter B, and none at all to the igniter A, even if the conductor connecting A to the points a: and 1 is not interrupted. This is because the drop between the points 7) and 1 is the same as the drop between the points I) and m, and no difference of potential exists between the points .02 and 3 to which the igniter A i s' co'nneeted. By such an. arrangement of circuits,-
the igniters" may remain permanently cons nected to the source of electrical energy, and no distributer is needed to control the' passage of the current. Further all the generating elements or. windings are simultaneously enrotatable unit.
ergized to generate current, and each cooperates with all the rest at each instant o ignition. Obviously the igniter-s A and B will be located in difi'erent engine cylinders.
Figs. 5, 6, 7, and 8 show amagneto embodying the principle illustrated in Figs. 3-
and 4. This magneto has s'emicircular'mag nets M bent in the form of a. semicircle, and assembled with their like poles adjacent, so as to form a complete circle. The magnets M are fastened to pole pieces of soft iron N and S, eacli of which has two polar projections H and 8-8 respectively. The
' Figs. 3 and i; and are connected in the same manner to igniters A and B.- T'is a timer having two sets'of insulated contacts,
one pair of contacts serving to shortcircuit the igniter A and the other pair to shortcir cuit the igniter B. 'The interrupter lever carrying the movable contacts 'is indicated by L and this leveris actuated by a cam a. As shownon Figs. 5 and 6, the sections 1 and 2 are in parallel with sections 3 and 4. When the magnetsrotate from the position shown on- Fig. 5 to-the position shown on Fig. 6, they pass through the point of maximum inductlon and the lines of magnetic force are reversed through the iron portions of the armature E in the same wayas in the well known shuttle wound armature commonly used on ignition magnetos when it passes through its mid; posit-ion between the permanent magnets. This reversal is indicated by. arrows. The result is a sudden change of the lines of force through the sections, giving rise to a high voltage. At this moment the timer cam operates the lever" L breaking the short circuit around the igniters, and producing a spark at the igniter A. No spark, however, is produced at B, although the short circuit is broken around the igniter-B at the same time, because, as explained above, there is no electromotive force at this time in the conductors for connecting the igniter B with the midpoint of the wires connecting generating windings of the sections 1 and 2 and Band t. When the magnets and polepieces N and S have rotated through 90 degrees the next ignition period is reached. Sections 1 and {are now in parallel with sections2 and 3, and the conditions are the same as described in connection with Fi 4. -This condition is illustrated on Figs. and 8. When the ma rotate from the position shown on Flg. 7 to that shown on Fig. 8, the lines of force are reversed through the armature and the sections thereon, producing a -maximum gnets voltage the same as before, and when the timer is operated, the spark is produced at the igniter is inactive.
B. At this time the igniter A,
By the ahove construction a spark takes place four times for each revolution, twice at A and twice at B. 'This makes it possible to rotate the magnets at half the speed of the ordinary .bip'olar shuttle wound machine, wherein only two sparks per revolution can be obtained. This means the saving of a great deal of wear; which is no inconsiderable object.- 4 Obviously I might emplpy a separat timer lever for the igniter A and a separate timer lever for the igniterB, operating each separate lever by turns. The timer, how-.-
ever, in no wise distributes the flow of current to the igniters, since that object is ob-. tained solely by the arrangement of windings and-their relation to the magnetic field in the manner shown. The funct1on of the timer is simply to fix the exact instantwhen the spark is to pass at one igniter or the other, and not by any means deter- Tmine the particular igniter at wh1chthe.
spark is to be produced.
obviously by using a'sufiicient number of turns, and sufliciently strong magnets,'even the timer could be dispensed with, so that the magneto wouldoperate without either a timer or distributer to supply current to the igniters in the manner shown. Under 'such circumstances the polar projections of the magnets and the armature would have to be given an especial shape, so that the reversal of the lines of force would take place through the sections with. great suddenness at each instant when a spark is requlred.
Fig. 9 shows a side view of the magnets, and the inside polepieces. The polepieces N and S are fastened at one end to'a disk F which has a hub H to receive a drivlng shaft 1. To the other end of the polepieces N and S is secured a cam ring R which has four cam projections to. operate the timer lever L. Fi 10 is a side view of the armature, which is fastened at the right to the ring 1', which is bolted or fastened in any other way to the support K.- This supportalso carries the interrupter lever as shown. Support K has an. aperture shown in dotted lines therethrough', to give passage for the armature wires, whichare led out through the hollow interior of the armature E. The ring 7* serves as a bearing support for the ring Eon the magnets, and the left end of the armature can be conveniently supported in a recess in the disk F when the parts are assembled. The operation of as-- sembling is accom lished by simply inserting the armature into the space between the polepieces N and S, till the ring R rests upon and surrounds the ring 7*.
Figs. 11 and 12 show views similar to Figs. 3 and 4, but with both primary .and secondary windings. The arrows and reference characters correspond to those on Figs. 3 and 4, and a jump spark is obtained at the spark gaps B and A whenever the circuit through the conductor a, b, or through the conductor m y is broken. When the cirtwo cylinders.
cuit is broken through a b (Fig. l2), with the sections 1 and 4 in parallel with sections 2 and 3, the sections 1 and 2 oppose each other likewise sections 3 and 4, and the current at once falls to zero, inducing a high voltage in the secondaries. This secondary voltage behaves exactly in the manner explained in regard to the Figs. 3 and 4 and produces a spark at B. When the primary circuit is broken through the conductor m y (Fig. 11),xwith sections 1 and 2 in parallel with sections '3 and 4, the operation is the same, producing a spark at A. It thus appears that the armature of my magneto, as shown on Figs. 5, 6, 7 and 8 can be wound with primary and secondary sections and made to produce a hightension current for ignition purposes, as well as with low tension sec tions for low tension currents.
Figs. 13, 14 and 15 illustrate amethod of eflecting ignition inregular sequence in the cylinders of an engine having more than These three views have reference to a three cylinder engine. Six sections are employed, indicated by 1. 2 3, 4, 5 and 6. The points between these six sections are connected by con ductors'a d,
b' e and c f", as shown, and an igniter may be placed in each one of these three conductors. Each of the sections will be designed to have the same resistance and the same inductance, exactly as inthe preceding cases. Suppose now. that the same electrb-- motive force be generated in each of the six sections by the same number of lines of force threading through them in the same instant of time. Suppose the six sections are all wound in the same direction around" the ring, and the direction of the magnetic" flux is'such that the E. M F.s of the section 1, 2 and 3 are in series, and those of the sections 4, 5' and 6 are in series; but the first three sections are in multiple with the second three. Under such conditions current will flow only through the conductor a." ti; and produce a spark at A. No current will 1 teaches flow through the other two conductors. The reasonfor this is lain. The section 6' is subjected to the between the points a and 0'. Tina difference of potential will oppose the E. M. F. in section 6 andwould be sufiicient to'send 'a current, driven by an E. M. F. equal to that'in the section 6, through this section in the opposite direction. But the section 1 is subjected to the full differenceof potential between the a and e, and this potential difference is enough to send a current 1 difierence of potential driven by an equal E. M. F. to that of the section 1 through this section in the oppo-" site direction. This reverse E. M. F. equal to that of a single section,-neutralizes the resultant reverse E. M. F. inwthe section 6', and the result is that there is no current flowing across between the points I) and e, c and f. B'y reversing the E. M. F. of the sections 1 and 4, causing the sections 2, 3 and 4' to be in parallel with sections 5,
6' and l, as on Fig. 14, the current all passes through the conductor 6' e. to the exclusion ofthe other two, and a spark is obtained at the igniter B. And by reversing the E. M. F. at thenext ignition period in the sections 2 and 5, throwing sectidnsfi" 4- and 5" in parallel with sections 6, 1' aiid 2, thecurrent all passes over the conductor at 0' f, producing a spark only at the igniter C; For a four cylinder engine eight sections would be used and there would be four conductors leading to .four ignitersi This principle could also be embodied in an igniter for an engine having more than four cylinders.
It willbe observed number of cylinders employed the sections of the generating windings constitute but a single generating source, and all the igniters may be directly connected thereto at each ignition period, the passage of the current to the proper igniter being automatically controlled without the use of a distributing circiiit controller of any kind; Further, the generating elements or windings which form the electrically-conductive or generating path through the magneto are so connected to one another and .to J the ig'niters as to cause current to pass from all of the generating elements to each igniter in turn at successive instants of ignition.
that regardless of. the
In conclusion, it is to be noted that for a three cylinder engine, the windings shown on Figs. 18, 14 and 15 wouldbe wound on a ring havingwsix polar projections instead of four, ason F gs. 5, 6,7, and 8, and for a four cylinder engine, the armature, would have eight polar project-ions.
'In closing it is to be observed that the embodiment of my invention set forth in Figs. 13, 14 and 15 may be wound with low tension wiring, inv which case low tension igniters, preferably of the magnetic break type will be connected at A, B and C; while if high tension effects are to be produced, primary and secondary windings will be employed after the manner set, forth on Fi s. 11 and 12. In the latter case the secon ary sections will be located on the armature in inductive relation to the six low tension-or primary sections 1, 2, 3, 4', 5 and 6. The same is true of themodifications described for producin ignition without a distributer in engines w 'ch have more than three cylinders.
Referring to the sources of electricity shown on the drawings, it will be observed that the magnets constitute primarily the means for creating an elect-romotive force in the windings; the arrangement of'pole: pieces on the magnets and the armature constitute means for controlling the action of .the magnetic field, so asto change the parallel relationsof the winding sections; while the magnets and thepolepieces thereon and on the armature together constitute means for generating current in such. a way as to cause current to pass to a different igniter at successive instants of igmtion. It is to be further observed that in all the forms ofelectric generating means indicated, the
winding sections constitute an electrically conductive multiple path in which current is generated to supply the igniters with elec-' 'tric energy. It is evident from the above description that no d stributer is needed in-my ignition tained by the manner in which current is generated in the-source of electricity; and" the actualemployment of a distributerfor similarcircuit controller in the-ignition circuits above described would not .interfere with or change in any way the action of the sections which make up the generating windings of the magneto.
Having described my invention, what I claim as new and desire to secure by Letters Patent of the United States is as follows i 1. In an ignition systemfor internal combustion engines, the combination of a p111 rality of igniters, a source of electricity for supplying current to said igniters,'and conductors connecting all of the said igniters to the said source at each period of ignition; said source having means for generating current in such a way'as to cause current to pass from all of its generating elements to a different igniter at each successive instant of ignition. 2. In an ignition system for internal combustion engines, the combination of a plurality of igniters, a source ofelectricity for supplying current to'said-igniters, and con-v ductors connecting-all of the said igniters to 66 the said source at each period of ignition,
system to-cause current to pass to each ig-. mtion circuit in, turn. This result is ob-' cessive instant of ignition.
comprising generating windings for supsaid source having magnetic means for generating current in such a way as to cause current to pass from all of its generating elements to a diflr'erent igniter at each suc- The combination of a plurality of cir- 7o cuits, means in said circuits consuming current at recurring periods, a source of electricity for supplying current to said circuits, and conductors connecting said source to all of said circuits at each of said periods, said source having means for generating current in such a way as to 'cause current to pass from all of its generating elements to a ditferent circuit at each of said periods.
4. The combination of a plurality of circuits, means in said circuits consuming current at recurring periods, a source of electricity for supplying current to said circuits, and conductors connecting said source to all of said circuits at each of said periods, said source 'having magnetic means for generating current in such a way as to causecurrent to *pass 'from 'all of itsgenerating elements to a different circuit at eachof said periods. ,1 v
5. In an ignition system for internal cornbustion engines, the combination of a plurality of igniters, a source of electricity plying current to the said igniters, and conductors connecting all of the said igniters I to the said source of electricity at each period of ignition, said source having means for generating current in such a way as to cause the current to pass from all of said windings to a different igniter at successive instants of. ignition.
6. In an ignition system for internal com bustion' engines, the combinationof a 'plu- .-rality 0t igniters, a source of electricity comprising generating windings for supplying current to said igniters, and. conductors permanently connecting all of the said igniters to said source of electricity, said no source having means for generating current in such a Way as to cause the current to pass to a different igniter ,at each successive instant of ignitio 7 In an ignition system for internal com bustion engines, the combination of a plurality of igniters, a source of electricity comprising a set of windings for supplying current to said igniters, and conductors connecting the said source to all of the said igniters at each period of ignition, said source having means forgenerating electricity in such a Way as to cause the current to pass from all of said windings to a different igniter at each successive instant of ignition.
8. In an ignition system for internal combustion engines, the combination of a' plurality of igniters, a source of electricity comprising a set of windings for supplying: electricity to said igniters, and conductors l. pass from all of saidlwmdmgs to a difierent permanently connecting the said source to i all of the said igniterdsard source having means for generating electricity in such a lit way as to cause the current to pass trom all of said windings to a difierent ignlter at successive instants of ignition.
9. In an ignition system for mternal oombustion engines, the combination of a plu-.
- for connecting the said source to all of the instants of ignition.
said igniters at each period ofignitiomsaid source hav ng means for generating electricity in such a wayas to, cause current to igniter at each successive instant of ignition.
10. In an ignition system for internal combustion engines, the combination of aplurality of igniters, a source of electricity comprising a set of generating windings for supplying current to said igniters, means for creating anelectromotive force in said windings, means for controlling the action of the first-named means to put certainot said windings in parallel with'the remainder or said windings,;at each period of ignition and for changing the parallel relations of the said windings at successive periods of ignition and means vfor connectlng all of the said igniters to the said source'at each ignition period, whereby the current will pass to a diflerent igniter at successive 11. In an ignition system for internal combustion engines, thecombination of a. plus rality of igniters, a source of electricity comprising a set of generating windings for supplying current to thesaid igniters, means for creating an electromotive force in the said windings, means for controlling the action of the first-named means to putcertain of said windings in arallel with the remainder of the said win ings at each period of ignition and for changing the parallel relations of the said windings at successive periods of ignition and means for connecting all of the said igniters directly and permanently to the said source,whereby the current will pass to a difierent igniter at successive instants of ignition.
12. In an ignition system for internal combustion engines, the combination of a' plurallty of 1gniters, generating windings or supplying current to the said igniters, said windings being closed on themselves, means for connecting all of the igniters directly and permanently to the said windmgs, said means joining the opposite terminals of the individual igniters to die-- metrically opposite points located at equidistant intervals in the closed circuit of said windings, means for creating electromotive forcesgm the generating windings, means for controlling the action of the creating being antenna means to put the electroruotive forces in the halves at thegenerating windings bounded by said diametrically. opposite points in parallel at each period ofignition and for shifting the terminal points of said halves'at successive periods of ignition, whereby all the 1 current passes to a difierent igmter at successive instants of ignition.
13. In an ignition system "for internal combustion engines, the combination of a plurality of igniters, generating windings for en plyin current to the said igniters," sai win ings being closed on themselves necting al -of the said igniters simuh taneously to the said windings, said means connecting the opposite terminals, of the individual igniters to'diametrically opposite points at equidistant intervals in the closed circuit of the said windings, means for creating electromotive forces in the generating windings, means for controlling the action of the creating means to, put the electromeans for electrically con motive forces in the halves of the generating windings bounded by said diametricalgg oppositepoints in parallel at each peri o ignition and forshifting the terminal points of said halves at successive periods 1 of ignition, whereby all the current passes to a difierent igniter at successive instants of ignition; w
14;. In an ignition system for internal combustion engines, the combination of a plurality of igniters, generating windings comprising a: set-of sections for supplying current to'the said igniters, said windings individual igniters to diametrically opp'o-- site points located atequidistant intervals in the closedcircuit of said windings, means for creating electromotiye forces in the generating windings, means for controlling the action of the creating means to put 'the'electromotive forces in the halves of the genclosed on themselves, means for eoncrating windings bounded by said diav metrically opposite points in parallel at each period of ignition and for "shifting the'terminal points ofe said halves at successive periods of ignition, whereby all the current passes to a difierent igniter at successive instants of ignition.v
15. In an ignitlon system for internal combustion engines, the combination of a plurality of igniters, generating windings comprising a set of sections for supplying current to the said igniters, said windings being closed on themselves, means for connecting. all of the said igniters siniultane-- ously to the said windings, said means connecting the opposite terminals of the individual igniters to diametrically opposite points located at equidistantflpoints in the closed'circuit of the said windings, means for creating electromotive forces in the gen crating wlndmgs, means for controlling the action of the creating means to put the elec-- tromotive forces in the halves of the gencrating. windings bounded by said diametrically opposite points in parallel at each period of ignition and for shifting the terminal points of said halves at successive periods of ignition, whereby all of the current passes to a different igniter at successive instants of ignition.
.16. In an ignition system for internal combustion engines, the combinationof a plurality of igniters, generating windings for supplying current to said igniters, said windings being closed on themselves, means v for permanently and directly connecting all terminals of the individual igniters to-dias of the said igniters to the said generating windings said means joining the opposite metrically opposite points located at equidistant intervals in the circuit of said windings, magneticmeans for creating electromotive forces in the generating windin s, means for controlling the action of t e put the electromotive creating means to V forces in the halves of the generating windings bounded by said diametrically opposite points in parallel at each period 0 ignition and for shifting the terminal points of said halves at successive periods of ignition, whereby all the current passes to a different ignlter at successive instants of ignition. Y K
17. In .an [ignition system for interna combustion engines, the combination of a plurality of igniters," genera ting windingsfor supplying current to the-said igniters, said windings bein closed on themselves, means for electrical y connecting all of the said igniters to the said windings simulfamously, said means joining the opposite terminals of the individual igniters to diametrically opposite points located at equidistant intervals in the closed circuit of the said windings means for creating electromotive .forces inthe said windings, means for controlling the action of the creating means to put the electromotive; forces in the halves of the generating windings bounded by said diametrically opposite points in par allel at-periods corresponding to the instants. of "ignition and for shifting'the terminal with said source.
points of said halves at successive periods '55 of ignition, whereby all the current passes to a different igniter at successive instants of ignition.
18. In an ignition system for internal combustion engines, the combination of a plurality of igniters, and a source of electricity having generating elements, said source embodying controlling means for enabling all of said generating elements to supply current to one igniter to the exclusion of another, while both the said igniters are in circuit with said source.
19. The combination of a plurality of cir ,cuits, means in each of said circuits for consuming current at recurring periods, and a source of electricity having generating elements to be connected to said circuits, said source embodying controlling means for enabling all of said generating elements to supply current to the consumingmeans of l5 one circuit to the exclusion of the consuming'nleans for another circuit while both of said consuming means are in circuit with said source;
20. In'an ignition system for internal combustion engines, the combination of *a plurality of igniters, and a sourceof electricity having generating elements, said .source also having magnetic controlling means for enabling all of said generating elements to supply current to the consuming means of one circuit to the exclusion of the. consuming means for another circuit while both of said consuming means are in circuit In testimony whereof I have signed my name to this specification in the presence of two subscribing witnesses.
, WILLIAM F. NICKEL;
Witnesses:
C. W FAIRBANK, IsAAc' B. OWENS.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| US59384910A US1050162A (en) | 1910-11-23 | 1910-11-23 | Magneto ignition system for internal-combustion engines. |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| US59384910A US1050162A (en) | 1910-11-23 | 1910-11-23 | Magneto ignition system for internal-combustion engines. |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| US1050162A true US1050162A (en) | 1913-01-14 |
Family
ID=3118429
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| US59384910A Expired - Lifetime US1050162A (en) | 1910-11-23 | 1910-11-23 | Magneto ignition system for internal-combustion engines. |
Country Status (1)
| Country | Link |
|---|---|
| US (1) | US1050162A (en) |
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US3242916A (en) * | 1962-09-04 | 1966-03-29 | Pal Magneton | Igntion system for internal combustion engine |
-
1910
- 1910-11-23 US US59384910A patent/US1050162A/en not_active Expired - Lifetime
Cited By (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US3242916A (en) * | 1962-09-04 | 1966-03-29 | Pal Magneton | Igntion system for internal combustion engine |
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