DE2653497A1 - Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft - Google Patents

Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft

Info

Publication number
DE2653497A1
DE2653497A1 DE19762653497 DE2653497A DE2653497A1 DE 2653497 A1 DE2653497 A1 DE 2653497A1 DE 19762653497 DE19762653497 DE 19762653497 DE 2653497 A DE2653497 A DE 2653497A DE 2653497 A1 DE2653497 A1 DE 2653497A1
Authority
DE
Germany
Prior art keywords
motor
engine
cyl
drive
winding
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
DE19762653497
Other languages
German (de)
Inventor
Wilhelm Klinsing
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Individual
Original Assignee
Individual
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to DE19762653497 priority Critical patent/DE2653497A1/en
Publication of DE2653497A1 publication Critical patent/DE2653497A1/en
Pending legal-status Critical Current

Links

Classifications

    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02KDYNAMO-ELECTRIC MACHINES
    • H02K53/00Alleged dynamo-electric perpetua mobilia

Landscapes

  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Reciprocating, Oscillating Or Vibrating Motors (AREA)

Abstract

The motor consists of a reciprocating electromagnetic rotor driving a crankshaft (4) (which in turn drives a vehicle). The reciprocating rotor winding (3) interacts with two stator windings (1, 2) such that at one end like poles repel and the rotor is driven towards the other end. At the other end the polarity of either the rotor winding or the stator windings is reversed so that the rotor is repelled back again to the first end. The linear motion of the rotor is converted into rotary motion by a normal connecting rod and crankshaft.

Description

MagnetmotorMagnetic motor

Elt. Motor ohne Gegen BMK Der Aufbau des Magnetmotors entspricht im wesentlichen dem einea Binzinmotors im Kfz. Lediglich die Kolben müßen seitlich 2 sich gegenüber liegende Schlitze als Führung für die 2 Pleuelatangenverbindungen aufweisen.Elt. Motor without counter BMK The structure of the magnet motor corresponds to essentially the one Binzin engine in the vehicle. Only the pistons have to be on the side 2 opposing slots as a guide for the 2 connecting rods exhibit.

Wenn lt. folgender Berechnung eine Spule 0,15 Watt verbraucht, ergibt das einen Verbrauch von 3 X 0,15 = 0,45 Watt für einen Zylinder. Ein 4 Zylindermotor mit umgerechnet ca 100 PS würde demnach einen Stromverbrauch von nur 1,8 Watt haben.If, according to the following calculation, a coil consumes 0.15 watts, the result is that is a consumption of 3 X 0.15 = 0.45 watts for one cylinder. A 4 cylinder engine with the equivalent of around 100 hp, it would have a power consumption of only 1.8 watts.

Bei Annahme, daß die Berechnung annähernd richtig ist, müßte ein PKW mit einem derartigen Magnetmotor ohne weiterer mit 1 oder 2 Sutobatterien zu betreiben sein. Durch die vorhandene Lichtmaschine würden die Batterien zusätzlich noch nachgeladen.Assuming that the calculation is approximately correct, a car would have to to operate with such a magnetic motor without another with 1 or 2 Sutobatteries be. The batteries would also be recharged by the existing alternator.

Arbeitsweise eines Kolbens Der Kolben (W3) hat die gleiche Wicklung wie die obere und untere Statorwicklung (W1 u. W2). Der Kolben stellt den Rotor dar.How a piston works The piston (W3) has the same winding like the upper and lower stator winding (W1 and W2). The piston represents the rotor represent.

Abbildung 1) W3 ist als konstanter magnet geschaltet. Im oberen Scheitelpunkt wird W1 u. wa durch Drehung der Kurbelwelle über einen Verteilerfinger eingeschaltet. Jetzt stoßen sich oben zwei gleiche Pole ab und unten ziehen sich zwei ungleiche Pole an.Figure 1) W3 is connected as a constant magnet. In the upper vertex W1 and wa are switched on by turning the crankshaft via a distributor finger. Now two identical poles repel each other at the top and two unequal poles pull each other at the bottom Pole on.

Abbildung 2) Im unteren Drittel wird der Strom durch den Verteilerfinger ausgeschaltet. Durch die Stromunterbrechnung erfelgt eine wesentliche Kraftverstärkung. (Lenzache Regel) Abbildung 3) Im unteren Scheitelpunkt erfolgt erneut die Einschaltung wie in Abbildung 1, jedoch ia ungekehrten Sinn, sodaß aus dem Nordpool der Südpool wird.Figure 2) In the lower third, the current is through the distributor finger switched off. The power interruption results in a significant increase in force. (Lenzache rule) Figure 3) In the lower vertex, the activation takes place again As in Figure 1, but in general the opposite sense, so that the north pool becomes the south pool will.

Abbildung 4) Es erfolgt erneut die Ausschaltung.Figure 4) It is switched off again.

Nach erneuter Umschaltung erfolgt die Wiedereinschaltung wie in Abbildung 1.After switching over again, it is switched on again as shown in the figure 1.

Da die volle Kraft nur in unmittelbarer Nähe der Wicklungen 1 u 2 auftritt, sind für die Überbrückung des Zwischenraumes mehrere Zylinder (mindeatens 2-3) erforderlich.Since the full force is only available in the immediate vicinity of the windings 1 and 2 occurs, several cylinders (mineatens 2-3) required.

Wenn lt. folgender Berechnung eine Spule ca 650 kg leiatet, dann leistet ein Zylinder 4 X 650 = 2600 kg.If, according to the following calculation, a spool can hold approx. 650 kg, then it performs a cylinder 4 X 650 = 2600 kg.

Verbrauch einer Spule de s Magnetmotors I = 02025 A U = 6 V N = U . I = 6 . 0,025 = 0,15 W Ein herkölicher Elt. Motor würde für die gleiche Leistung einer Spule mit 8,79 PS = 8,79 X 736 W = 6469,44 W verbrauchen.Consumption of a coil of the magnet motor I = 02025 A U = 6 V N = U . I = 6. 0.025 = 0.15 W A traditional parent. Engine would for the same performance a coil with 8.79 HP = 8.79 X 736 W = 6469.44 W.

Berechnung Wicklung 1 d d = 10 cm U = d # = d = 10 cm U = d . # = 10 . 3,14 = 31,4 cm 10 . 3,14 = 31,4cm r = 5 cm F = r² . # = 5² . 3,13 = 78,5 cm 6 v # Drabtlänge = 31,4 . 3520 = 110528 cm = 1105,28 m C für Kupfer 0,017 q = 0,078 qmm # = 22 u 8 654 lt. Tabelle B = 14388 B =4 =g = 654 22 = 14388 = 650,45 = 8,70 PSCalculation of winding 1 dd = 10 cm U = d # = d = 10 cm U = d. # = 10. 3.14 = 31.4 cm 10. 3.14 = 31.4 cm r = 5 cm F = r². # = 5². 3.13 = 78.5 cm 6 v # Drab length = 31.4. 3520 = 110528 cm = 1105.28 m C for copper 0.017 q = 0.078 qmm # = 22 u 8 654 according to table B = 14388 B = 4 = g = 654 22 = 14388 = 650.45 = 8.70 hp

Claims (1)

P a t e n t a n s p r u c h Titel : Magnetmotor Anwendungsgebiet: Kraftantrieb eines Elt.-oder Benzinmotors.P a t e n t a n s p r u c h Title: Magnet motor Area of application: Power drive of an electric or gasoline engine. Zweck : Ein Benzinmotor erzeugt erhebliche Abgase und ein Elt.Motor erzeugt erhebliche Gegen EMK. Der Magnetmotor erzeugt beides nicht, Stand der Technik: Bisher war es nicht möglich ein Kfz mit einem Elt. Motor wirtschaftlich zu betreiben.Purpose: A gasoline engine produces considerable exhaust gases and an electrical engine generates significant back EMF. The magnetic motor does not generate either, state of the art: So far it was not possible to drive a car with one parent. To operate the engine economically. Aufgabe: Der Magnetmotor kann jeden Motor ersetzen.Task: The magnetic motor can replace any motor. Lösung: Magnetmotor als Antrieb für jeden Kfz (PKN u. LKW) Das Kfz müßte mit 1 - 2 normalen Autobatterien die gleiche oder größere Reichweite erhalten wie mit einer Tankfüllung Benzin.(somit keine Abgase) Außerdem könnte der Motor jeden bisher üblichen Motor ersetzen zB. als Antrieb für einen Elt. Generator.Solution: Magnetic motor as a drive for every vehicle (PKN and truck) The vehicle would have to get the same or greater range with 1 - 2 normal car batteries like with a full tank of gasoline (thus no exhaust fumes). In addition, the engine could replace any previously common motor, for example. as a drive for a parent. Generator. Als Pkw Motor würde sich beispielsweise folgende Berechnung ergeben. For a car engine, for example, the following calculation would result. Verbrauch in A. = 1 Wicklung I 0,025 A 1 Zyl. - 0,025 A .3 = 0,075 A 4 Zyl. = 0,075 A .4 = 0,3 A Stomaufnahme in W. = 1 Wicklung i 0,15 W 1 Zyl = 0,15 . 3 = 0,45 W 4 Zyl = 0,45 . 4 - 1,8 W ca Leistung 1 Wicklung P - 659,45 kg = 8,79 PS 1 Zyl. = 8,7 PS. 4 = 34,8 PS 4 Zyl. = 34,8 PS . 4 = 139,2 PS Vorteile: Da der Magnetmotor keine Gegen FNK erzeugt, verbraucht er wesendlich weniger Strom als ein üblicher Elt. Motor. Consumption in A. = 1 winding I 0.025 A 1 cyl. - 0.025 A .3 = 0.075 A 4 cyl. = 0.075 A .4 = 0.3 A current consumption in W. = 1 winding i 0.15 W 1 cylinder = 0.15 . 3 = 0.45 W 4 cyl = 0.45. 4 - 1.8 W approx power 1 winding P - 659.45 kg = 8.79 PS 1 cyl. = 8.7 hp. 4 = 34.8 HP 4 cyl. = 34.8 hp. 4 = 139.2 HP Advantages: Because the Magnet motor does not generate any against FNK, it consumes much less electricity than a common parent. Engine. Beschreibung mit Ausführungsbeispiel und Zeichnung: liegt bereits vor.Description with exemplary embodiment and drawing: is already included before. Oberbegriff: Magnetmotor als Kraftantrieb für sämtliche Kraftfahrzeuge sowie als Ablösung aller bisher bekannter Motoren (Benzin u. Elt.Motor) ist Kennzeichnender Teil ; dadurch gekennzeichnet, daß dieser Magnetmotor als Elt.Motor keinen drehbaren Rotor besitzt und somit keine Gegen EMK erzeugen kann.Generic term: Magnetic motor as a power drive for all motor vehicles as well as the replacement of all previously known engines (gasoline and electrical engine) is more characteristic Part ; characterized in that this magnetic motor as an Elt.Motor does not have a rotatable Rotor and therefore cannot generate any back EMF.
DE19762653497 1976-11-25 1976-11-25 Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft Pending DE2653497A1 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
DE19762653497 DE2653497A1 (en) 1976-11-25 1976-11-25 Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
DE19762653497 DE2653497A1 (en) 1976-11-25 1976-11-25 Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft

Publications (1)

Publication Number Publication Date
DE2653497A1 true DE2653497A1 (en) 1978-06-01

Family

ID=5993923

Family Applications (1)

Application Number Title Priority Date Filing Date
DE19762653497 Pending DE2653497A1 (en) 1976-11-25 1976-11-25 Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft

Country Status (1)

Country Link
DE (1) DE2653497A1 (en)

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO1989006876A1 (en) * 1988-01-22 1989-07-27 Tahuhu Tahiata Method for maintaining rotation of an engine crankshaft

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
WO1989006876A1 (en) * 1988-01-22 1989-07-27 Tahuhu Tahiata Method for maintaining rotation of an engine crankshaft
FR2626418A1 (en) * 1988-01-22 1989-07-28 Tahiata Tahuhu METHOD FOR MAINTAINING A CRANKSHAFT OF A ROTATING MOTION, CALLED "THE AIR MOTOR"

Similar Documents

Publication Publication Date Title
DE69401207T2 (en) ENGINE / GENERATOR WITH PERMANENT MAGNET
DE69333487T2 (en) LINEAR ELECTRODYNAMIC MACHINE AND METHOD FOR THE USE THEREOF
DE69628036T2 (en) ELECTROMAGNETIC PISTON MOTOR
DE10217562A1 (en) Device for converting vibration energy into electrical power
DE68910487T2 (en) Electric motor.
DE2355728A1 (en) Reciprocating electrical machine - has piston and cylinder with armature winding and permanent magnet field
DE2653497A1 (en) Reciprocating electromagnetic motor - has rotor moving linearly between stator electromagnets and linked to crankshaft
DE102018007275A1 (en) Controlled magnet motor
EP3382868A1 (en) Electric motor
DE3633775C2 (en)
DE3026005A1 (en) Electrical multi-magnet reciprocating motor - employs controlled switching to give repulsion and attraction of electromagnets on piston and cylinder
DE3543809A1 (en) PERMANENT MAGNETIC SYNCHRONOUS MACHINE
DE2914554A1 (en) MAGNETIC GENERATOR
DE69519797T2 (en) Magnet drive with permanent magnet
DE4311274C2 (en) Switched reluctance motor
DE2443840A1 (en) MAGNETIC MOTOR POWERED MOTOR
DE19815395A1 (en) Direct energy conversion from linear movement to electric in boxer engine or flat engine
DE202019101849U1 (en) MVP ELECTRIC MOTOR
DE4133948C2 (en) Free piston engine
DE348610C (en) Electric motor for alternating current with a high number of periods
JPS61277358A (en) Upright motor
DE2519811A1 (en) Turbine with variable strength magnets on stator - has interruptor system pulsating field to effect rotation
DE19608795A1 (en) Magnetic head electric motor esp. for automobile industry and land and forestry equipment, compressors etc
DE10040354A1 (en) Crankshaft generator-motor for motor vehicles and trains, has conductor windings about crankshaft running surfaces machined into crankshaft bearing shells for voltage induction by magnetized crankshaft
EP0609800A1 (en) Switched reluctance motor as traction motor for electric drive vehicle

Legal Events

Date Code Title Description
OHJ Non-payment of the annual fee