AU2016256693A1

AU2016256693A1 - The Newton Perpetual Motion Machine is a Machine which uses the outside source of energy initially then it will work by newly discovered method. Albert Einsteins equation e=mc2 so energy is everything. But; Who made them as they are now? In the Quantum world; Everything is made of uncertain things the elementary particles So, we cannot able to say anything with absolute certainty. So, laws of thermodynamics. This machine may violate the first and second laws of thermodynamics so It might not make any general sense like a spooky action in a distance (Quantum entanglement). Energy is the law.

Info

Publication number: AU2016256693A1
Application number: AU2016256693A
Authority: AU
Inventors: Balathayaparan Thayaparan
Original assignee: Individual
Current assignee: Individual
Priority date: 2016-11-08
Filing date: 2016-11-08
Publication date: 2018-05-24

Description

TH1< NEWTON PERPETUAL Μ ΟΤΙ OX MACHINE

As we go through the FIG 1; we can see, it is not in scale. The dynamol is attached to top bar5 so it will continue to stay and move with the top bar5. The middle bar6 will be attached to the top bar5 as the number seven. At the end of the middle bar6; another vertical bar7 is attached with the hanging weight8 to the other end of the vertical bar7 as they are in the FIG1. At the top end of the top bar5; there is a centre of big gear3 (At centre of gravity of the spur gear/big gear3) so the top bar5 will be hanged from it in front as they are in the FIG 1. Meanwhile; at the back of the centre of the big gear3, the round barlO will be attached at the end so the big gear and the round barlO can move together as one. At the other end of the round barlO, counterweightl9 will be attached but the counterweight can be moved so the attachment is not permanent. At the middle of the round barlO, shaftll will be attached horizontally at ninety degree and permanently so the shaftll and round barlO can be able to rotate together. At the other end of the shaftll, shaft collarl6 will be attached permanently. Just before that; shaft holderlS will be attached with back polel7 so the shaftll can be able to rotate smoothly so; with the minimum friction during the time of its rotation. Another shaft collarl6 is used to keep in place the shaft 11; just front of the shaft holderlS. AT the middle of the shaftll, power gearl2 will be attached vertically to the shaftll as they are in the FIG1. Another pinion gearl3 of motor2 (highly efficient motor2 available at the time so the dynamol) is used to give power to the shaftll to rotate by the power gearl2. The power gearl2 has three spokes20. The motor2 is attached permanently to the front polel8. Another shaft holder as the shaft holderlS is used to hold the other end of the shaftll as we see them in the FIG1. We should make sure the minimum amount of contact surface is used to hold the shaftll to reduce the friction between the shaftll and the two shaft holderlS/ the polesl7,18 (while the machine is working). At the same time the two shaft holderslS must be strong enough to hold the shaftll in its position to rotate. The electrical wire9 is used to supply the direct current from the dynamol. The wire9 length should be three meter so it will not get in the way of the moving parts while the machine is working; also for this reason the length of the poles (17,18) should be extended enough reasonably to avoid any collision with the moving parts. The bottom; the end poles (17,18) should be grounded firmly in the supporting platforms.

The pinion gearl4 of dynamol will move along the circumference of the big gear3. So, the top bar5. It is in the shape of rectangle so it will stop the twisting movement while it's rotation. The big gear3 has three large spokes4 to have the stability of the gear. The ratio of these two gears; the big gear3 and the pinion gearl4 is so high. When the big gear has one rotation, the pinion gearl4 will have fifty rotations approximately. Because we need to keep up with high speed and high torque reasonably. At the same time, we should make sure the top bar5 will stay approximately above four o clock position in front of the big gear3. So, the hanging weight8 can produce enough power/ the torque to the dynamol. If we put the top bar5 at the six O clock position, then there is not enough torque / power to the dynamol because of the angle of the gravitational force used for the bar5.

Meanwhile; the shaftll will rotate counter clockwise as smoothly as possible. At the same time the shaftll will rotate with the RPM of six second approximately. The length of the shaftll can be increased reasonably to balance (to counteract) the force produced by weights such as hanging weight8, round barlO, big gear3, counterweightl9, dynamol, wire9 and the bars (5,6,7). So now the centre of gravity is in the middle of the shaftll.

The resistance produced by the dynamol should not be increased to jeopardize the balance (centre of gravity) in the middle of the axis of shaftll. The motor should not be over stressed out with inappropriate combination of electrical load. So, the gear ratio should be: when the power gearl2 rotates once then the pinion gearl3 of the motor2 should rotate 15 times approximately. The power of supply to the gears (12,13) should be smooth as possible with the appropriate rotational speed and torque.

Explanation about the working of this machine

Here is an example to illustrate the working of this machine. Just take away these things from the machine for a moment; the wire9, motor2 with its gearl3 and power gearl2, bars (6,7). then; If the counterweightl9 is near the point of the rotation of shaftll, the big gear3 is at the six O clock position related to the point of rotation (the axis of shaftll) because the round barlO is not balanced well. Now, we attach the bar5 to the big gear's centre so it will rotate smoothly. At the middle of the bar5, we need to attach the dynamol so the dynamol can be able to move around the circumference of the big gear3 for power as they are in the FIG1 (the length of the bar5 is short in the drawing FIG1 for the drawing convenience). The dynamol has resistance (to produce electricity) so it cannot rotate until 5 newton force is applied. Now we attach the hanging weight8 to the other end of the bar5 (below). At the same time, we need to balance the round barlO so we add the equal amount of weights of dynamol, bar5 and hanging weight8 to the other side of the round barlO so the centre of gravity can be concentred in the middle of the axis of shaftll. Now we move the counterweightl9 slowly by hand away from the axis of shaftll so the round barlO will start to rotate counter clockwise slowly and the bar5 will rotate with the big gear3 in the axis of shaftll until torque is increased by the bar5 and hanging weight8 and then the jerky movement will begin to happen by the bar5 because of gradually increased torque /power by gravitational force. So, we should keep up the movement of the counterweightl9 away from the axis of shaftll until we have the smooth movement with the bar5 and dynamol. And then we should remove the hanging weight8 safely from the bar5 then; at the same place, we should attach the middle bar6. At the other end of the middle bar6, we will attach the vertical bar7 with the hanging weight8 below the centre of big gear3 as they are in the FIG1. The vertical bar7 is used for extra stability (if we need it, otherwise; unnecessary). Now, in the other side of the round barlO, we should add additional weights of middle bar6 and vertical bar7 with the counterweightl9 and then keep moving the counterweights until the round barlO is parallel to the ground and balanced in the middle of the axis of shaftll. So, the weights are distributed equally both sides of the round barlO so the round barlO will rotate smoothly. Now we attach the things at the same place that we removed before; the motor2, gears (12,13), wire9 so on.

The weights of big gear3 (3 kg, 50 cm of radius), dynamol (1 kg) top bar5 (1 kg, 1 meter of length) middle bar6 (2 kg, 2 meter of length), vertical bar7 (1 kg, 25 cm of length ), hanging weight8 (4 kg, 15 cm of length) so total amount 12 kg to the right side of the round barlO (Its length 2.5 meter and radius 2.5 cm) as they are in the FIG 1 so we need to add equal amount of weights to the left side of the round barlO and we should make some adjustment by moving the counterweightl9 to balance the round barlO in the middle of the axis of the shaftll. The weight of wire9 is not much enough so we may leave it. it won't affect the balance of the round barlO because it is not heavy enough. All these measurements are approximate; not with absolute accuracy.

The measurements and materials can affect the outcome the purpose of this machine so we should choose them wisely with the purpose in mind and the suitability of the environmental conditions available at the time of use of this machine. So, the materials for the gears and bars; they should be strong and light generally. If we want to reduce the weights of the top bar5, middle bar6 and vertical bar7, then we should replace the bars with the light strong carbon fibre/ light steel rod and likewise; others wisely. IF the dynamol needs additional newton force for power supply then we need to increase the length of the top bar5 until the dynamol gets enough force/ the torque. (Reminder; At the same time, we need to increase the length of the middle bar6 enough to keep the hanging weight8 below the centre of big gear3. Because the centre of gravity is concentrated in the middle of the axis of shaftll) so now we need to move the counterweight 19 gradually towards the end of the round barlO until the centre of gravity concentrated and balanced properly at the shaftll (Because we increased the length of top bar5 and middle bar6) and fix the counterweightl9 properly and temporarily with the round barlO. [the counterweight is like a cylinder with a hole in the middle (circles sides) so the round barlO can go through it as they are in the FIG1] When we balance the round barlO with counterweightl9, we should make sure the dynamol has enough torque/power to produce the electricity. So, there is no jerky movement with the dynamol. We should not increase or decrease anything to interrupt this smooth movement. If the axis of the big gear3 and the point of rotation of the shaftll are at the same place (or as one axis) then it will not work because torque is increased by the unbalanced weights.

Starting the machine

Before we start the machine, we should make sure the environment is appropriate to do so in all ways. The machine starts with the chemical energy of food of the person who starts the machine counter clockwise (shaftll) by hand then the person should make sure the rotational speed of the shaftll and the moving weights (8,19) are balanced properly in the machine as they are in the FIG1.

Stopping the machine

Just cut/disconnect the electrical wire9 safely and then wait for the rotation of the shaftll to stop.

When the centre of gravity and the workings of this newton machine are achieved smoothly as we read the above paragraphs then we can able to get more electrical energy from the dynamol by adding another wire to the dynamol for additional power to do useful works. Because the torque/power applied to the dynamol is always exceeding than the amount of electrical power needed for the motor2 to rotate the shaftll with the balanced round barlO. So, if we need more energy then we should increase the torque and speed reasonably to the dynamol as we read above paragraphs.

There is weakness in the machine so be responsible user of this machine

As we know; no one can able to build the perfect machine of all time so this machine has its own weakness. When we use the motor2 and dynamol; they are made of magnets so in time they will lose its magnetic power and energy because of entropy and friction. We cannot achieve full efficiency so; the parts will be damaged by the oxygen's chemical reactions so on. Nothing will run forever without proper maintenances so the machine will gradually slow down because of its natural structural damages. So, we need to keep up with new updated technological ideas and information to maintain this machine well. So, to use this machine in space or any other places. We can replace the gravitational force with centrifugal force to use the machine in spaceship. So, we may have unknown weakness so the inventor is not responsible for any inconveniences or any legal liability claims because it is user's responsibility of choice.

The development & additional information of this machine. I developed this machine so far within 12 years nearly but there are a lot of on and off rest times in years. I started this project with the static electrical spark with dark blue blanket before I go to sleep on my bad but I developed this idea with silver pendulum. I saw it on television ads in the evening time of springs/summer in 2004 at home. I developed this idea in my room. It took me many years to come this far. Sir Isaac Newton's three laws of motion helped me to develop this machine so I like to use his name as the sign of respect and admiration to his useful works so I named this machine with his name. I have strong testimony of God without it, I will never ever believe the possibility of free energy/this machine. The creation cannot understand everything about the creator. We are the creation and God is the creator. If there is a creation, there is a creator. So, there are God's laws. I believe this machine will work 100 percent and I am going to prove it with the grace of God. I like to give this machine for free to everyone as my service upon one condition; only in Resource Based Economy as suggested by Jacque Fresco and Zeitgeist Movement. I hope we can use this machine for any noble cause but I am not happy for wars and destructions so on. Thank you for the people who invested time and values in me. Thank God sincerely. (Glossary of new terminology in the next page)

Glossary of new terminology

Shaft balancing weight shifting procedure

As the name says we should balance the shaftll by distributing the weights equally both sides to the connecting round barlO of the shaftll. So, we can able to rotate the shaftll smoothly with the centre of gravity concentrated in the axis of the shaftll (in the middle of the shaftll) as they are in the FIG1. So, the counterweightl9 is on the left side and the big gear3, pinion gearl4, dynamol, top bar5, middle bar6, vertical bar7 and hanging weight8 on the right side so their weights are balanced.

At the same time, we need to keep the torque level higher/more for the dynamol than the torque/force needed for the motor2 to rotate the shaftll so we need to place and attach the dynamol in the middle of the top bar5 as they are in the FIG1. (the distance; the length between the dynamol and the low end of the top bar5 is short for drawing convenience) For more torque; we should extend of the length of the top bar5. The extension of the length of the top bar5 is depended upon the load for the motor2. The top bar5 should not be extended unreasonably to jeopardize the balance of the round barlO or the working of the motor2. Basically, the centre of gravity of the weights should be concentred in the middle of the shaftll; (When the machine shaftll is rotating counter clockwise, the position of the top bar5 can be; between 12 to 6 o clock position to the big gear3. So, we can also do this; when the hanging weight8 at the end of the top bar5 then we can extend the top bar5 alone reasonably). When the top bar5 around 4 o cock position to the big gear3 as they are in the FIG1, at the end of the top bar5 (below), we should attach the middle bar6 and then we should extend the length of the middle bar6 until it's end is below the centre of big gear3 and then attach the hanging weight8 with the middle bar6. If there is any extra stability needed, then we should attach the vertical bar7 with the middle bar6 before we attach the hanging weight8. So, at the end we attach the hanging weights as they are in the FIG1 so the centre of gravity is concentrated in the middle of the shaftll. So, this hanging weight8 can provide the torque/force for the dynamol and then the electrical power is supplied from the dynamol to the motor2 to rotate the shaftll. This procedure is called shaft balancing weight shifting procedure.

Circle of connectivity procedure

As we see the FIG1, the dynamol is connected to the motor2 with wire9 then the two gears of 12 and 13 are connected to the shaftll (or shaftll and motor2). The round barlO is attached to the shaftll as in the FIG1. The big gear3 is attached to the round barlO at the right side and then the top bar5 with the dynamol. This is called the circle of connectivity procedure.

We can able to replace the wire9 with other chemical power supply things such as laser and heat devices but till this is called with the same name so we may able to change others or flip the procedures too but still, we call the same name.

We should read this again for more understanding.

Thank You

The End.

Claims

Claims

1, I am claiming this Shaft balancing weight shifting procedure. This new procedure must not be authorised without the written permission from the inventor. To know about this procedure. Please check the glossary of new terminology on the fifth page of the description. If anyone use this procedure to get free energy from the machine or to operate the machine without proper written authorisation from its inventor, then they are violating this claim fully.
2, I am claiming this Circle of connectivity procedure. This is also new procedure must not be authorised without the written permission from the inventor. To know about this procedure. Please check the glossary of new terminology on the fifth page of the description. If anyone use this procedure to make or to operate the machine without the proper written authorisation from the inventor, then they are violating this claim fully.
3, I am claiming the name of this machine The Newton Perpetual Motion Machine. The name of this machine must not be mismatched or misused with other machines or other things. If anyone use the name or change the name of the machine without the proper written authorisation from the inventor, then they are violating this claim fully.
4, I am claiming the Full Authority of the invention. Mr. Balathayaparan Thayaparan invented this machine fully but not the motor, the dynamo and the wire. If anyone deliberately make the attempt to change the authority over the machine, then they are violating this claim fully.
5, I am claiming the development of this machine. Only the inventor has all rights to develop or redesign this machine. If anyone deliberately make the attempt to develop or redesign this machine, then they are violating this claim fully.
6, I am claiming the responsibility of choice to the user of this machine. All rights and associated responsibility of choice of the user(s) of this machine are reserved only for the user(s) of this machine to use the machine freely as they wish. So, the inventor of this machine is not responsible for any liability claims because it is the responsibility of the choice of the user. If anyone deliberately make the attempt to take away these rights from the user(s) then they are violating this claim fully.
7, I am claiming this machine is free to use in any noble cause. This machine is free to use in any noble cause to enhance lives with the proper written permission from the inventor. But not for the purpose or cause of war(s) and destructions of valuable lives. The machine is free in the Resource Based Economy as suggested by Mr. Jacque Fresco and Zeitgeist Movement.