JPH0866058A - Electrostatic four-phase electric-field rotating machine and electric-field phase control apparatus - Google Patents

Abstract

PURPOSE: To provide an electrostatic four-phase electric-field rotating machine which establishes the electrostatic rotation control method of a non-dielectric material and to provide an electric- field phase control apparatus. CONSTITUTION: A rotor electrode 10 is sandwiched between dielectric-material disks, and this assembly is sealed up so as to leave an electrode connection part. Nonconnective outside pole plates 11 are mounted on, and attached to, both side faces in the same position of the electrode, a charging capacitor is constituted, and indirect electrode faces are formed. When a high-voltage positive potential and a high-voltage negative potential are electrified to the rotor electrode 10, the outside electrode plates 11 are set to inverted potentials, and a rotation mechanism can be constituted of fixed electrode 30 and of an electrostatic electric field. In the fixed electrodes 30, respective electrodes are brought into continuity with both faces of an insulating fixation plate, slit cut grooves are formed between multicoupled fixed electrodes in which four polaes are formed as one group, and an interpolar coupling capacitance is made small. In a high-speed electric-field phase-reversible rotation and electric-field phase control apparatus, a high-voltage positive potential and a high-voltage negative potential are electrified to the fixed electrodes via a first system circuit and a second system circuit, a DC high-potential and negative-potential short-circuit current collection circuit is constituted of a forward-rotation electric-field phase pattern signal and a reverse-rotation electric-field phase pattern signal, and an electrostatic electric field repulsive force and an electrostatic field attractive force are generated.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an electrostatic four-phase electric field rotating machine, a rotating mechanism used in an electric field phase controller, and an electric field phase control circuit configuration thereof.

[0002]

2. Description of the Related Art A conventional electrostatic mechanism is often used in which a high-voltage electrode is exposed, which poses a danger of electric shock due to electric discharge and is accompanied by radio interference. There is a problem in removing the electrostatic charge of the electrode, and it was used only in a limited range, was not suitable for high speed rotation, and was limited to low speed driving.

[0003]

The electrode charge due to static electricity is in a state of being charged to a positive potential or a negative potential, and the charged charge is equal to that stored in the capacitor, and the electric field potential conversion can be speeded up. there were. Utilizing the special characteristics of the electrostatic theory in rotating machines and electric field phase control devices, we obtained economical efficiency with less power consumption and torque performance with good rotation efficiency, solved the problems of electric field potential conversion, and controlled electrostatic rotation. It is an object of the present invention to provide an electrostatic four-phase electric field rotating machine and an electric field phase control device whose method has been established.

[0004]

In order to achieve the above object, in the rotating mechanism of the present invention, the rotor electrode is sandwiched between the disks of the dielectric material and the electrode connecting portion is left and sealed. Indirect electrode surfaces are provided by attaching unconnected outer electrode plates to both side surfaces at the same position as the electrodes. When a positive potential and a negative potential are applied to the rotor electrode, the outer electrode plate has an inverted potential and corresponds to the fixed electrode.

Fixed electrodes are attached to both sides of the insulating fixed plate,
Each electrode is electrically connected on both sides, and a cutting groove is provided between the fixed electrodes of three groups connected to form a group of four poles to reduce capacitive coupling between the poles.

Since the electric field phase area and the electrode charge of the fixed electrode are small, a high withstand voltage capacitor is connected between each terminal of the electrode first system circuit and the second system circuit to improve the charge increasing capacity and the electric field phase potential conversion efficiency and to achieve high speed. Useful for electric field conversion. The purpose of the circuit configuration is to recover the discharge current of the negative potential short-circuit current recovery circuit by returning it to the positive potential electrode.

In order to establish the starting point of the electric field phase pattern, two clear pulses are provided for the normal rotation and the reverse rotation of the photodetection reset signal of the position angle slit code disk in the structure synchronized with the rotor electrode position angle. The reverse rotation electric field phase causes the repulsive rotation start position of the electric field to differ from the normal rotation position by 15 degrees, so that the clear pulse starts with a delay of 15 degrees. The starting point of the electric field phase starts from the rotor electrode and the electric field repulsion, and the rotational torque of the repulsion area difference is generated, and the rotation direction by the electric field phase pattern is established. After the phase shift of the electric field phase pattern, the electric field rotation for attracting the electric field is continued due to the repulsion of the electric field. This configuration has the purpose of making the electric field phase pattern start clear pulse angle positions for forward rotation and reverse rotation different.

A first system circuit of fixed electrodes. A neutral point is taken for the diode coupling in parallel with the high frequency alternating current transformer (FBT) circuit of the power supply that connects the second system circuit, and it is connected to the circuit ground. The output of the (FBT) circuit is paired with the first system and the second system of the half-wave voltage doubler rectification and negative potential short-circuit current recovery circuit, which are respectively configured on both sides of the output of the (FBT) circuit.
The four pairs of fixed electrode terminals 1 and 2.3 are configured to alternately operate the positive potential high voltage and the negative potential short-circuit current circuit of the control electric field phase pattern. The first system circuit, in which the full-angle pulse signal and the angle reset pulse of the position angle slit code disk are selected by the electric field rotation of the rotor between the positive rotating electric field phase and the reverse rotating electric field phase. Each gate of the second system circuit is opened and closed to form a positive potential high voltage and negative potential electric field rotation circuit configuration for controlling the fixed electrode and electric field phase pattern.

Forward rotation. Reverse rotation is a manual selection switching configuration. Rotation speed control is manual (automatic control is also possible), variable region switching and transmission pulse train variable pulses are input to the control shift circuit, and variable speed control is configured until rotation synchronization. In addition to forward rotation and reverse rotation, it can be temporarily stopped by locking the transmission pulse train. The electric field phase control is based on the method in the embodiment, but it is also easy to apply the programmed electronic circuit control.

The rotor electrode is

In the mechanism shown in (1), the rotary shaft is passed through a high withstand voltage slip ring and a power supply brush, and a direct current high voltage (DC2
5KV) power circuit. Prevents dielectric breakdown by incorporating a self-discharge stabilizing circuit when the DC high voltage exceeds the withstand voltage. Ground the high voltage circuit and the control circuit with an external enclosure,
Separated from the power supply (AC100V).

[0011]

In the electrostatic four-phase electric field rotating machine and the electric field phase controller configured as described above, the DC high potential charges of the rotor electrode are indirectly fixed via the outer electrode plate of the rotor electrode capacitor. The rotating electric field of the electrode opposes the rotating electric field phase potential and acts on the rotation of the accelerated high potential electric field, and acts on the electric field repulsion of the high speed electric field phase pattern and the acceleration load of the suction torque. The rotation speed is a positive rotation that is synchronized with the control transmission pulse by the variable transmission pulse train. A reverse rotation electric field rotation is used.

A two-system double-alternate double-voltage rectification high-voltage circuit of high voltage and negative voltage of a fixed electrode due to a rotating electric field phase is applied in a double loop alternately to recover a short circuit. The fixed electrode is
Positive rotation. back reverse. The electric field potential is given by the electric field phase pattern of the suspension control circuit and the control configuration of the rotational speed variable synchronous shift.

For the above reason, since the rotating mechanism has the flat plate structure of the light-weight fixed electrode and the rotor as the flat disk structure, the design specification can be applied to the multi-layered assembly, and there is a margin for a significant improvement of the rotating electric field phase torque. . Rotor electrode. Since the fixed electrode consumes little power, it can contribute to resource-saving and power-saving technologies. Electrostatic 4
The rotating torque of the electrostatic electric field of the phase electric field rotating machine can exhibit smooth rotating acceleration and efficient rotating torque without the rotating torque node, wow, flutter, etc. which were present in the electromagnetic type electric rotating machine.

[0014]

EXAMPLES Examples will be described with reference to the drawings.
The cross-sectional view of FIG. 1, the rotor electrode 10 configuration is the rotor electrode 10
Is sandwiched between the dielectric material disks 12 and sealed, leaving the electrode connection portion. Outer electrode plate 1 at the same position as the electrode, with no connection on both sides of the disk
1 is mounted, and a charging capacitor for each electrode is formed on both sides of the disk. The rotor electrode 10 is connected to the high-voltage slip ring 14 and fastened to the rotary shaft 16 together with the position angle slit code disc 2 to form the rotor. The fixed electrodes 30 are provided on both sides of the insulating fixed plate 3 in multiples of the rotor electrode 10.
The electrode 30 is mounted on both sides so as to be conductive. The 1st pole of the fixed electrode 30. 3rd pole. 2nd pole. The electrode arrangement order of the No. 4 pole is made into one group, and the three groups are combined, and the electrodes are connected and connected from the terminal 5 shown in FIG. The first and second poles of the fixed electrode 30 are connected to the first system circuit terminals 5.1 and 2. Connect the third and fourth poles of the fixed electrode 30 to the second system circuit terminals 5.3 and 4.
Reversal of positive and negative electric fields of DC high voltage and positive direction rotation of electric field attraction by the electric field phase pattern of all electrodes of the third group of electrodes. It is configured as a fixed electrode for electric field phase control of reverse rotation and rotation stop.

The rotor electrodes in FIG. 2 are alternately arranged in the order of positive high potential poles and negative potential poles 10 to form a total of 6 poles. The rotor 1 is connected to the rotary shaft 16 by the connecting bush 13 connected to the rotary shaft, the electrode connection of the plurality of rotors is connected, and the high voltage slip ring 14 supplies a high voltage through the lead-out connection 19. Fixed electrode plate 3. It is laminated on the rotor 1. When a high voltage potential and a negative potential are applied to the rotor electrode 10, the disk outer polar surface of the rotor 1 becomes an inversion potential, and the electric field with the fixed electrode becomes a rotation mechanism of electric field repulsion and electric field suction corresponding to high speed. .

An outer diameter slit hole 20 and an inner diameter slit hole 21 are provided in the position angle slit code disk 2 of FIG. 3, and the outer diameter slit holes 20 are 24 holes at a pitch of 15 degrees. Three inner-diameter slit holes 21 having the same angle are provided at a 120-degree angle to be used for an angle reset detection signal. The outer diameter slit hole 20 is converted into a full-width pulse signal, which is input by a clock pulse of a full-angle shift circuit of 30 degrees in a frequency dividing circuit described later. Rotate the angle reset signal 21 forward. A reverse rotation clear pulse signal with a difference of 15 degrees and a normal rotation 0 degree clear pulse signal are formed by manual switching of the reverse rotation.

FIG. 4 shows the signal detection system circuit of FIG.
Far infrared projection 28 is irradiated to the position angle slit code disk 2,
Upon detection 26 of the transmitted light 29, a full-angle pulse signal and an angle reset pulse signal are output. The position angle slit code disk 2 aligns the rotor electrode 10 with the position angle alignment mark 18 at the electric field phase start point of the fixed electrode 30, and fastens it to the rotating shaft. The far-infrared projector 28 and the light-reception detector 29 are configured as a pair and mounted on the fixed electrode plate 3 shown in FIG. 5 at 120 degrees 62. After adjusting the optical axis, they are fixedly mounted. The full-angle pulse signal and the angle reset signal of the position angle slit code disk 2 are detected, and input to the electric field phase control circuit.

FIG. 7 shows a system diagram of the electric field phase control circuit.
The full-width pulse signal 29 is input to the shaping circuit 65, branched from the full-width pulse signal 65, and the full-width frequency dividing circuit 64 and the full-width pulse signal 65 are input to the reset shift circuit 71. It is put in the frequency dividing pulse circuit 64, the full-width 15 degree signal is converted into a 30-degree clock pulse, the full-angle shift circuit 73 is inputted, and the clock pulse is input every 30 degrees. The angle reset signal 29 is input from the shaping circuit 70 to the reset shift common path 71, and the 15-degree clock pulse of the reset shift circuit 71, which receives the full-angle pulse signal 65, is also input. Positive rotation. A reset pulse is input to the full-angle shift circuit 73 and the speed control shift circuit 74 by the conversion 72 of the clear pulse having a difference of 0 degree and 15 degrees by the reverse rotation switching manual operation. The oscillation clock of the oscillation control pulse circuit 75 is input to the speed control shift circuit 74 by the manual speed range variable 47, the full-angle shift circuit 73 and the output of the speed control shift circuit 74 are converted into electric field phase signals, and the normal rotation phase and the reverse rotation phase are input. The gate of the SCR circuit 58 having the fixed electrode potential is opened and closed by the output branch of the diode matrix circuit through the switching circuit 59. SCR circuit 5
The high-voltage power supply 8 receives the high-frequency alternating current from the oscillation circuit 76 from the power amplification circuit 77FBT, connects it to the terminals T and 6 in FIG. 5, and inputs it to the SCR circuit 58. SCR
The DC high voltage potential and negative potential short-circuit current recovery circuit of the circuit 58 is opened and closed by opening and closing the gate signal of the matrix circuit branch distribution.
From the first system circuit terminal 5.1-2 and the second system circuit terminal 5.3-4 of the fixed electrode, a high voltage potential energization of the rotating electric field phase pattern is configured on the fixed electrode.

FIG. 8 illustrates a time chart of four-phase control for the electric field phase control circuit. The lower and upper stages show the full-angle detection pulse signal (pulse angle 15 degrees) waveform in the first stage. The angle reset pulse detection signal is output to the second stage every 120 degrees. A 15-degree angle pulse of the full-angle detection pulse signal of the third stage is converted into a 30-degree angle that is doubled by a frequency dividing circuit, and is converted into a clock pulse for the electric field phase shift circuit 73 and input. The fourth step shapes the angle reset detection signal into a reset pulse,
The pulse width is made shorter than the full-angle detection pulse in the third step. A clear pulse is input to the reset shift 71 to indicate a clear pulse at the time of forward rotation, and the clear pulse is cleared at the fourth phase from the start of the electric field phase. The seventh stage shows the electric field phase shift at the time of reverse rotation, and the electric field phase is shifted by a clock pulse with a pitch of 30 degrees, which is 15 degrees different from that at the time of normal rotation. The start will start 15 degrees before.
The clear pulse has the same detection angle as during normal rotation. The eighth stage is a clear pulse at the time of reverse rotation, in which the clock pulse for reverse rotation is phase-shifted by the electric field every 30 degrees, and the clear pulse for reverse rotation is configured to start the reverse rotation phase pattern phase shift.

FIG. 9 illustrates a circuit connection for supplying a high voltage potential of an electric field phase pattern by rectifying a DC high voltage potential of a fixed electrode by half-wave voltage doubler rectification. High frequency alternating current (T) and (6) of power source
Then, it is connected to the fixed electrode terminal through the SCR and the diode voltage doubler rectification system. From the terminal (T), the DC high voltage for parallel SCR and diode voltage doubler rectification is applied to the fixed electrode terminal 1.
And 3 and connect. SCE in parallel from terminal (6)
And via the diode voltage doubler rectification system, fixed electrode terminal 2
And 4 and connect respectively. High voltage capacitors are connected to the fixed electrode terminals 1 and 2, and 3 and 4, so that the fixed electrode charge increasing capacity and the negative potential short-circuit current are recovered. A high breakdown voltage diode is connected between the high frequency AC terminals (T) and (6) of the power source in the energizing direction centering on the ground (GND).
Fixed electrode terminals 1 and 2 are the first system circuit. The fixed electrode terminals 3 and 4 are used as the second system circuit, the fixed electrode terminals 3 and 4 are used as the second system circuit from each terminal of the fixed electrode, and the SCR gate is turned on by the forward and reverse rotating electric field phase pattern. . A fixed potential and a negative potential are applied to the fixed electrodes and the terminal voltages of the first system and the second system to form the electric field phase potential of the electric field phase pattern.

The first system circuit terminal 1 is set to a positive potential, the terminal 2 is set to a negative potential pair, and the SCR gate is turned on. In the conversion phase of the electric field, the potentials of the terminals 1 and 2 are configured to be inverted, and the alternate potential conversion is configured to the second system circuit terminals 3 and 4 to the alternate inverted potential in the same manner as the first system circuit terminal potential. By stacking the first system circuit and the second system circuit and alternately opening and closing the SCR gate, the electric field potential of the electric field phase pattern is made to act on the loop-shaped voltage-current circulating circuit in the circuit, and the electric field repulsion of the fixed electrode and the high-speed electric field attraction are performed. Configured for rotational force propulsion. The structure in which the air gap is provided between the outer electrode plate of the rotor electrode and the fixed electrode can provide a structure for high-voltage charge retention and quick electric field conversion at the time of electric field phase pattern conversion. When a dielectric material is inserted into the void, it acts to retain electric charges in the dielectric material, so that the method of eliminating the dielectric material does not hinder electric field conversion.

FIG. 10 is an expanded view of the basic structure of electrostatic field repulsion and suction rotation due to the electric field phase. Fixed electrode terminal 1 and electrode No. 1 pole. Terminal 3 and pole 3. Terminal 2 and pole 2.
An electrode configuration in which the terminals 4 and the 4th pole are arranged in a group in the order of poles;
Negative potential pole on the outer plate of the rotor electrode. The electric field expansion at the start of the first electric field phase with the positive potential pole is illustrated. The photodetection hole position of the position angle slit code disk that is the same as the rotor shaft is also shown. To start the electric field phase during positive rotation, mount a photodetector at the 120 degree angle (360 degrees in Fig. 3) position corresponding to the 3rd and 2nd poles of the fixed electrode, and detect the full-angle pulse of the photodetection signal. The first phase of the rotating electric field phase is started by the signal and the angle reset pulse detection signal. The rotating electric field phase works from the first system circuit and the second system circuit to apply the electric field potential at the same time to all fixed electrodes,
Second phase. Third phase. The fourth phase is configured in the forward rotation and reverse rotation directions of the electric field by the potential conversion shown in FIGS. 11 and 12. In the reverse rotation, the light detection signal is manually switched in the reset shift circuit, and a clear pulse signal conversion for delaying the reset angle of the same position angle by 15 degrees is given to the full-angle shift circuit to start the reverse rotation electric field phase pattern. The reverse rotating electric field shown in FIG. 12 is formed. The rotation stop (temporary stop) is locked in the electric field suction area by manually switching the full-width clock signal and the angle reset pulse. The other stopping action is to turn off the power, and the rotor becomes free.

[0023]

Since the present invention is configured as described above, it has the following effects.

The rotor electrode is sandwiched between the disks of the dielectric material, and the electrodes are sealed except for the electrode terminals to prevent direct high-voltage discharge and electric shock. Attach to both sides. By constructing a charging capacitor for each rotor electrode, it is possible to exert an effect on repulsion of the electrostatic field phase and high-speed rotation of electric field attraction.

The position angle slit code disk mounted on the rotor shaft controls the electrostatic four-phase electric field conversion angle by the light transmission detection signal to control the full-angle clock pulse signal and the angle reset pulse signal. The rotation mechanism can be reversibly controlled by the electric field phase pattern of rotation.

The fixed electrode number is set to a multiple pole of the rotor electrode,
It is attached to both sides of the insulation fixing plate, and each electrode is connected in a double-sided manner. By providing slit slits between the fixed electrodes, capacitive coupling between the electrodes can be reduced. Assembling and laminating mechanism has one type of fixed electrode plate, which has economical effect in manufacturing.

A DC high voltage (DC24K) is applied to the rotor electrode.
V) can be an electrostatic field mechanism of positive potential and negative potential by the high withstand voltage slip ring of the rotor shaft.

The first system circuit is connected to the three-group combined connection terminal in which the fixed electrodes are arranged in one group. The power supply configuration by the second system circuit is configured such that the positive and negative potentials of the electric field phase, the electric field voltage of the neutral point grounding, and the loop-shaped voltage current in the circuit are converted into potentials.
High-speed electric field repulsion and suction of the electric field phase pattern can be used to configure a rotational speed, reversible rotation, rotational torque, and an all-pole rotating electric field.

A high withstand voltage capacitor is connected between the fixed electrode terminals to increase the capacity of the electrode charge and to recover the voltage and current of the negative potential, thereby improving the potential efficiency of the electric field phase conversion phase shift.

The high frequency AC of the power source is paired by a first system and a second system with a half-wave voltage doubler rectifier and a negative potential short-circuit current recovery circuit, and a total of four sets (two sets on one side) at the high frequency AC output terminal. Connecting. A fixed electrode for electric field phase pattern signal control and an electric field phase potential configuration of DC positive high voltage and negative high voltage can be formed.

The direction of rotation can be selected by the positive and negative potential charge pole structure by the electric field phase pattern of the fixed electrode and the DC high voltage electrostatic field repulsion and electric field suction structure of the outer pole of the rotor electrode. The structure in which the air gap is provided between the outer electrode plate of the rotor electrode and the fixed electrode can achieve a high-speed electric field conversion at the time of high voltage charge retention and electric field phase pattern conversion. When a dielectric material is inserted into the void, it acts to retain electric charges in the dielectric material, so that the method of eliminating the dielectric material does not hinder electric field conversion.

By manually selecting the electric field phase start points of the fixed electrode and rotor electrode surfaces, the direction of rotation can be established by setting the area difference of electric field repulsion, and reversible rotation of forward rotation and reverse rotation can be performed.

An angle reset detection signal of a position angle slit code disk mounted on the rotor main shaft is converted into a forward rotation and reverse rotation clear pulse, an electric field phase shift circuit, a 0 degree clear pulse and a 15 degree delayed clear pulse configuration. Thus, the electric field phase pattern shift for each rotation direction can be converted.

The full-angle pulse detection signal of the position angle slit code disk mounted on the rotor main shaft is divided by 15 by a frequency dividing circuit.
The degree pulse signal can be converted into a pulse signal of every 30 degrees, and the full-angle phase shift circuit can be configured to shift the electric field phase with clock pulses.

The control shift circuit and the full-angle shift circuit are synchronized with the clock of the transmission pulse train to change the rotation range of the electric field phase pattern. By controlling the speed of electric field phase conversion, the electric field of the fixed electrode can be adjusted to a variable speed and a stable rotation speed.

The electric field phase control signal is selected between forward rotation and reverse rotation, and the electric field phase synchronization output signal is applied to the fixed electrode and the gate of the SCR which supplies a high DC voltage by the diode matrix circuit. The signal of the rotation pattern can be branched to control the distribution signal.

Since the rotating mechanism is composed of a lightweight fixed electrode plate and a flat disk rotor electrode, it has the convenience of being able to form a multi-layer assembly of a printed circuit board structure, etc. There is. The power consumption of both the rotor electric field pole and the fixed electrode is small, and even if a control device is added, the electric power and resource-saving electrostatic four-phase electric field rotation mechanism can greatly contribute to the practical technology.

Since the control circuit mechanism shown in the embodiment is designed on the basis of an experimental machine, part of the display circuit and the operating mechanism are omitted. It is also possible to easily apply a programmed electronic control circuit that replaces the method other than the basic circuit system.

[Brief description of drawings]

FIG. 1 is a cross-sectional view of an electrostatic four-phase electric field rotating machine.

FIG. 2 is a plan view of a rotor electrode disc.

FIG. 3 is a position angle slit code disc diagram.

FIG. 4 is a circuit diagram of a code disk and a photodetection system.

FIG. 5 is a plan view of an assembly structure of a fixed electrode plate.

FIG. 6 is a fixed electrode number, arrangement order, and electrode connection diagram.

FIG. 7 is a system diagram of an electric field phase control circuit configuration.

FIG. 8 is a time chart diagram of an electric field control pulse signal.

FIG. 9 is a power supply connection diagram of a fixed electrode electric field potential.

FIG. 10 is a basic configuration diagram of a rotating electric field phase.

FIG. 11 is a diagram showing the transition of the positively rotating electric field phase pattern potential of the electric field pole.

FIG. 12 is an electric field phase reverse rotation electric field phase pattern potential transition diagram.

[Explanation of symbols] (1) Rotor 10 Rotor electrode 15 Slip ring body 11 Disc outer electrode plate 16 Rotating shaft 12 Dielectric material disc 18 Alignment mark 13 Rotating disc connecting boss 19 Rotor electrode connecting wire 14 Slip ring (2) Position angle slit code disk 20 full-angle slit hole 28 far-infrared projector 21 angle reset hole 29 light receiving detector 26 light detection signal (3) fixed pole 30 fixed electrode 34 fourth electrode 31 first electrode 35 fixed electrode mounting plate 32 second Electrode 36 Inter-electrode slit groove 33 Third electrode 37 Electrode double-sided conduction hole (4) Electric field phase development diagram 41 + Potential 42 − Potential (5) High potential 2 system power supply 50 4 phase connection line 55 FBT (6) 51 3 phase Connection line 56 GND 52 Two-phase connection line 57 High voltage capacitor 53 1-phase connection line 58 SCR gate 54 FBT (T) 59 Electric field phase switching (G / B) (6) Angle 60 360 degrees 65 Full width detection pulse 62 120 degrees 66 Full width division 64 Division pulse 69 Full width pulse (7) 70 Reset shift 75 Transmission pulse 71 Reset shift 76 Transmission and amplification 72 Forward / reverse rotation switching 77 High-frequency AC 73 Full-width shift 78 High voltage (DC / 24
KV) 74 Speed control shift

Claims (4)

[Claims] 1. The rotor electrode (10) is connected to a dielectric material disk (1).
2) Insert and seal it. The outer electrode plates (11) are mounted on both sides of the disk at the same position as the rotor electrode surface to form a charging capacitor for each rotor electrode. The rotor electrode is attached to the high-voltage slip ring (14) for receiving a DC high voltage, the position angle slit code disk (2) of the electrostatic four-phase electric field, and the rotary shaft to form a rotor. The fixed electrodes (30) are formed on both sides of the insulating fixed plate (3) and the fixed electrodes are formed on both sides of the insulating fixed plate (3) in multiples of the number of rotor electrodes (10). An electrostatic four-phase electric field rotating machine having a mechanism for cutting a slit groove (36) between fixed electrodes to reduce high withstand voltage and capacitive coupling between the electrodes. 2. The rotor electrode (10) is constructed by alternately arranging positive and negative potentials of high DC voltage. Fixed electrode (30)
(1. 3. 2. 4) are arranged in one group, and the fixed electrode three groups are connected to each other. A high withstand voltage capacitor (57) is connected between the electrode system circuits of the second system circuit (5) to increase the electrostatic charge energy of the electric field phase electrode, and to recover the negative potential short-circuit current of the electric field phase conversion and the high-speed electric field. Structure of strengthening phase conversion. An electrostatic four-phase electric field rotating machine and an electric field phase controller according to claim 1. 3. The first system circuit of the fixed electrode (30). Second
An electric field phase pattern ( Electric field voltage (forward rotation and reverse rotation) is configured in the circuit to form a loop-shaped voltage-current conversion, which works for high-speed conversion of the electric field phase. Control circuit configuration for repulsion of electric field action and electric field attraction (5). A structure in which a DC high voltage for another circuit voltage doubler rectification is supplied to the rotor electrode (10) through brushing. An electrostatic four-phase electric field rotating machine and an electric field phase control device according to claim 2. 4. An electrostatic four-phase electric field start and a synchronous rotation by a transition of rotation are used to detect a position angle slit code disk (2) and a fixed electrode electric field phase position angle (60) with a light detection pulse signal (8) and a full-angle pulse signal (8). 8) and angle reset (8) signals are taken out, the full-width pulse signal (8) is converted into a pulse signal whose detection angle is doubled by the frequency dividing circuit (64.66), and is input to the full-angle shift circuit (71). The angle reset signal (8) is input to the forward rotation and reverse rotation (manual selection switching) shift circuit (71), and the full-angle phase shift circuit and the speed variable shift circuit (74) are input.
E Clear pulse (8.6-6) is input to the control. An electrostatic four-phase electric field rotating machine and an electric field phase control device in which an electric field phase starting position by two clear pulses (71) is set to forward and reverse electric field phase patterns (8) are selectively set.