JP2012021520A - Spindle rotating device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To generate inexpensive and highly stable rotational energy by using a spindle.SOLUTION: Rotational motion is accelerated by next motions from the stopped state of the device. 1. Main disk rotation is stopped by hand, and when the hand is released in the stopped state, then, the device continues the rotational motion in a following order. 2. In a state where a pendant stick and a stick to be topped are separate, a pendant gear rotates clockwise to drop, and an upper gear is lifted to increase a gravity center of a rotor. Before the pendant gear stops rotating, the pendant stick is placed on the stick to be topped to be integrated. 3. The rotator gravity center of the integrated pendant integrated stick to be topped and the pendant sticks drops and moves, and consequently entire main disk rotates anticlockwise to lift the pendant gear. Before the entire main disk stops rotating, the stick to be topped is separated from the pendant stick. 4. Thus, the stick to be topped and the pendant stick alternately move up and down like a seesaw between an integration device and a separation device, the pendant stick continuously rotate clockwise while the upper gear and the main disk continuously rotate anticlockwise. 5. Thereafter, by alternately repeating the motions 2 and 3, the rotational motion is gradually accelerated.

Description

The present invention relates to a technique using a rotating body having a rotating shaft.

Conventional rotating devices require resources such as wind power / hydropower / thermal power / nuclear power / electric power.

Resources that can be used in conventional rotating devices include the following problems.
Since wind power requires an appropriate wind, it is difficult to always supply stable energy.
Hydropower requires large facilities and is far away from where final energy is needed.
Thermal power has created major problems such as global warming by consuming petroleum resources, and resources are limited.
Nuclear power has an extremely large impact at the time of the accident and eventually produces by-products that are difficult to dispose of.
Power currently requires any of the above.

This spindle rotation device solves these problems by effectively utilizing the universally acting gravity regardless of the regional characteristics on the earth.

If the rotational force can be obtained by using gravity, for example, it is possible to develop a low-pollution power generation device of a size suitable for each city, home, or individual device required by using the power generation device. Become.

BEST MODE FOR CARRYING OUT THE INVENTION

■ Summary When the gears are combined and the weights of the gears and the weight of the suspended gear and the upper gear are set to appropriate values as shown in the figure, if the suspended gear and the upper gear are separated, the difference in rotational drop force When the suspension gear is rotated and dropped from the top and the upper gear is rolled while being lifted and integrated on the same rod, the entire center of gravity falls, so the entire rotating body rotates and the suspension gear is lifted. The up and down movements are reversed, in which the upper gear is dropped. This device incorporates a mechanism that repeats this motion alternately, and uses the weight in the device to perpetuate the rotational motion.
■ Equipment specifications Stand up vertically on two stands placed horizontally. A horizontal rotating rod is mounted so that it can freely rotate between the upper portions of the two columns. The main disc large and the main disc small gear are fixed to the horizontal rotating rod, and the large transmission gear and the small transmission gear are mounted so that they can be freely rotated as one body. The hanging gear small is suspended so that it can be rotated as a single unit with a horizontal rotating rod using a hanging rod so as to contact the small main disk and the hanging gear large to the small transmission gear. The reverse rotation gear is suspended from the horizontal rotation rod by using the upper rod so as to contact the large transmission gear and the upper gear. A weight disk with an appropriate weight that satisfies the conditions described below is mounted on the upper gear in consideration of the size of the hanging gear. In the example of the figure, the gear radii are the main disk large 200, small 80, the hanging gear large 100, small 80, the transmission gear large 120, small 60, the counter-rotating gear 20, and the upper gear 20, but in this case The suspension gear meets the above requirements by setting the weight of the upper gear and the rotational drop force at four times the weight of the suspension gear at the same angle so that the weight of the upper gear is about three times the weight of the suspension gear.
If the suspension rod and the upper rod are separated, the suspension gear rotates and rotates clockwise around the main disk small part due to the difference in rotational drop force. Put the hanging rod on the rod and integrate. When the hanging rod is integrated with the upper rod, the entire center of gravity moves below the vertical line of the horizontal rotating rod, so the entire main disk rotates counterclockwise, but before the rotation stops, it is separated from the switching device. Separate the upper and lower rods with the device. The switching device is mounted on the suspension rod and the upper rod to integrate and separate them, and the integrated device and the separation device fix the position on the support column and cooperate with this switching device.
The main disk and the upper gear are equipped with a reverse rotation prevention device to prevent clockwise rotation, facilitating the initial movement of the device and preventing the rotational motion from stopping.
■ Operation specifications When the main disk rotation (horizontal rotation rod rotation) is stopped by hand, the entire device will eventually stop. If you release your hand in this stationary state, there will be a difference in the initial motion, but the device will continue to rotate in the following sequence.
2. In a state where the suspension rod and the upper rod are separate, the suspension gear rotates and falls clockwise around the main disk small part, lifts the upper gear contacting the main disk, and the center of gravity of the rotating body rises. Before the suspension gear stops rotating, the suspension rod and the integral device are integrated by putting the suspension rod on the upper rod.
3. Since the center of gravity of the rotating body falls and moves, the entire upper disk rotates counterclockwise and lifts the suspension gear. Before the whole main disk stops rotating, the upper rod and the suspension rod are separated by the switching device and the separation device.
4). As a result, the upper rod and the suspension rod rotate up and down alternately like a seesaw between the integrated device and the separation device, the suspension gear rotates clockwise, and the upper gear and main disc rotate counterclockwise. Continue.
5. Thereafter, the motions 2 and 3 are alternately repeated to gradually accelerate the rotational motion.
6). Two, three, etc. equidistant hanging rods and upper rods on horizontal rotating rods. . . And this device can be arranged side by side to easily increase the rotational force, and the rotational motion becomes smoother.

The front view of the state in which the hanging rod is horizontally separated shows that the hanging gear rotates and drops from the rotational dropping force of the hanging gear and the upper gear, and the upper gear rotates and rises. The front view of the suspension bar in a horizontal integrated state shows that the entire main disk rotates counterclockwise from the rotational drop force of the entire center of gravity. In addition, since the counterclockwise rotational force in the integrated state is larger than the clockwise rotational force in the separated state, it is effective to arrange a plurality of the devices on the horizontal rotating rod. It is the side view seen from the upper gear side with a rotating rod in a horizontal state. It is a top view in the state where a rotating rod is horizontal.

  See Figure 1

The present invention relates to a technique using a rotating body having a rotating shaft.

Conventional rotating devices require resources such as wind power / hydropower / thermal power / nuclear power / electric power.

Resources that can be used in conventional rotating devices include the following problems.
Since wind power requires an appropriate wind, it is difficult to always supply stable energy.
Hydropower requires large facilities and is far away from where final energy is needed.
Thermal power has created major problems such as global warming by consuming petroleum resources, and resources are limited.
Nuclear power has an extremely large impact at the time of the accident and eventually produces by-products that are difficult to dispose of.
Power currently requires any of the above.

This spindle rotation device solves these problems by effectively utilizing the universally acting gravity regardless of the regional characteristics on the earth.

If the rotational force can be obtained by using gravity, for example, it is possible to develop a low-pollution power generation device of a size suitable for each city, home, or individual device required by using the power generation device. Become.

BEST MODE FOR CARRYING OUT THE INVENTION

■ As shown in the figure, combining the gears and setting the radius of each gear and the weight of the suspended gear and the upper gear to appropriate values will result in differences in rotational drop force when the suspended gear and the upper gear are separated. When the suspension gear is rotated and dropped and the upper gear is rolled up and lifted and put together on the same rod, the entire center of gravity falls, so the entire rotating body rotates and the suspension gear is lifted. The up and down movements are reversed, in which the upper gear is dropped. The device incorporates a mechanism that repeats this motion alternately to permanently accelerate the rotational motion using the weight in the device.
■ Equipment specifications Stand up vertically on a stand placed horizontally, and attach a horizontal rotating rod between the tops of the supports. The main disc gear is fixed to the horizontal rotating rod, and the suspension rod, upper rod and transmission gear are mounted so that they can rotate freely. A suspension gear is mounted on one of the suspension rods so that the suspension gear size and the reverse rotation gear can rotate freely, and a projection for placing the upper rod on the other end is mounted as a switching device. One of the upper rods is mounted so that the upper gear can freely rotate. The main disk, the suspension gear, the upper gear, the reverse rotation gear, and the transmission gear are meshed so that the suspension rod and the upper rod are aligned.
In the example shown in the figure, the gear radii are the main disk 240, the transmission gear large 360, the suspension gear large 90, the small 60, the reverse rotation gear 45, and the upper gear 60 in the illustrated example. In the hanging gear, the weight of the upper gear and the rotational drop force that are four times the weight of the hanging gear are balanced at the same angle, but the weight of the upper gear is equal to the weight of the hanging gear so that it can be lifted easily. The counter-rotating gear here is intended to transmit the rotational drop force of the weight of the suspended gear to the transmission gear, so this weight is not taken into account to make it as light as possible.
■ Operation specifications As shown in Fig. 1, when the suspension gear is placed on the right side of the rotation shaft and is stopped by hand and then released, the suspension gear and the upper gear are switched to try to rotate and drop independently. The device is in an unrelated separation. The suspension gear transmits a rotational drop force twice its own weight W to the transmission gear as a clockwise rotational force via the reverse rotation gear with the contact point with the main disk as a fulcrum. On the other hand, the upper gear transmits a rotational drop force that is ½ times its own weight W as a counterclockwise rotational force to the transmission gear with a contact point with the main disk as a fulcrum. Due to the difference in rotational force between the transmission gears, the transmission gear, the suspension rod and the upper rod rotate clockwise around the rotation axis, and the suspension gear is eventually positioned below the rotation axis vertical line.
2. When the suspension rod and the upper rod coincide with the vertical axis of the rotation axis, the rotational force is lost, so the rotation is not accelerated. However, when the suspension rod and the upper rod reach this point, the suspension rod and the upper rod are The upper gear moves to the right side of the rotating shaft because it rotates slightly clockwise beyond the rotating shaft vertical line.
3. In the state where the upper gear is located on the right side of the rotating shaft as shown in FIG. 2, the hanging gear and the upper gear are each about to rotate and fall independently, but the upper gear is put on the switching device. Since both the suspension gear and the upper gear are in an integrated state on one suspension rod, a rotational force having a combined weight of 2 W is applied to the suspension rod at the center of gravity G. With this rotational force, the suspension rod accelerates clockwise, the transmission gear rotates in the same manner, and the upper gear is eventually positioned below the vertical axis of the rotation axis.
4). When the suspension rod and the upper rod coincide with the vertical axis of the rotation axis, the rotational force is lost, so the rotation is not accelerated. However, when the suspension rod and the upper rod reach this point, the suspension rod and the upper rod are The shaft rotates slightly clockwise beyond the rotation axis vertical line, and the suspended gear moves to the right side of the rotation shaft.
5. Thereafter, the motions 1 to 4 are repeated to gradually accelerate the rotational motion.
6). Two, three, etc. equidistant hanging rods and upper rods on horizontal rotating rods. . . The rotational force can be increased easily by increasing the number, and when one hanging rod and the upper rod coincide with the vertical axis of the rotation axis, the rotational force is lost even when the rotational force is lost. Therefore, a stronger and smoother rotational driving force can be obtained from the constantly generated rotational force.

The hanging gear is a front view on the right side of the rotating shaft and shows that the device rotates clockwise. A top view of the upper gear on the right side of the rotating shaft shows that the device rotates clockwise. It is the side view seen from the upper gear side with a rotating rod in a horizontal state. It is a top view in the state where a rotating rod is horizontal.

See Figure 1

Claims (1)

A weight placed on a rotating body with a horizontal axis of rotation causes rotation movement to the stable position of the weight due to the drop force between the weights and rotation to the stable center of gravity position of the entire rotating body alternately to continue the rotating motion. apparatus.

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