A 20,000 rpm capacity, 1,420 Nm motor (z) using the appropriate gear ratio should be able
to turn a 200 kg collider arm calibrated to a 0.6m radius to approximately 1,300 rpm.
This would yield a peak performance of around 226,780 kg-force or 2,223,952 Newtons of unidirectional thrust (that can also be converted into torque). Applied to a vehicle weighing just 2,500 kg, it shifts and lifts x90 times the vehicles mass. This level of thrust would likely bring the vehicle
vector force or unidirectional thrust the C-Drive will put out, which will determine
the amount of electricity it can amplify, the velocity it can launch at and sustain using collisions. For more on this apply the
At present as shown above C-Drives easily outclass fusion energy in terms of
net energy gain and lack of inordinate levels of complexity.
The peak angular velocity for a unit of this size and spec is 5000 rpm.
The first thing to observe is that the 200kg mass at a radius of 0.6m rotated up to 4,316 rpm is providing 2,499,858 Kg-force [24.5m Newtons amplified]. This is easy for you to verify yourself using the centrifugal force formula. The C-Drive converts this to unidirectional force 24,513,276N. It then converts this thrust to Torque 14,707,965Nm/s . This is simply how a 1m diameter C-Drive tethered to generators puts out electrical energy in Gigawatts equivalent to several nuclear power stations. To argue, is to simply be in denial, follow the method below:
To put this into context at 4,316 rpm a C-Drive of 1 meter diameter illustrated above could supply the
equivalent energy or electricity as 6 fully operational nuclear power plants.
Assuming materials used to construct the C-Drive are able to withstand these forces, if not, more collider arms can be used with lower rpm but the same results. This is the conversion of 2,499,858 kg-force from centrifugal force into 24,513,276N (24.5 Meganewtons) of unidirectional thrust, which in turn the C-Drive converts from uni-directional thrust into 14,707,965 Nm/s of Torque, which is used to generate Gigawatts of electricity .i.e. here is the calculation for a 200kg, 4,316 rpm, 0.6m collider arms, exciter (input power) 95KWh: C-Drive conversion of pan-directional force into unidirectional force Output is:
Centrifugal force equation
F=mv2/r = 200Kg (271.182m/s)2/0.6m=
24,513,276N unidirectional thrust
unidirectional force into Torque:
Torque = 24,513,276N x 0.6m = 14,707,965 Nm/s*
Torque into electricity:
14,707,965 Nm/s / 9.5493 x 4,316rpm = 6,647,563,646 Watts =
6.6 GWh of generated electricity
This is amplification or a Net Energy Gain of
6.6GWh / 95KWh
= 69,974*
This shows that C-Drives easily outperform fusion energy in terms of NEG and being emission free can be considered cleaner than fusion energy which uses plasma.
The advantage with C-Drives is that the innovation and technology is open to study,
straight forward, any technical mind or engineer can see step by step how the energy
is generated and where it comes from, there's no smoke and mirrors.
On average a nuclear power plant only generates 1 Gigawatt of electricity, this
means that technically, pound for pound, C-Drives easily outperform nuclear power plants
being run without the amplification of C-Drives.
Zambia's ZESCO in present national electricity supply infrastructure can produce
2,900 Mega Watts of electricity, whereas the C-Drive is theoretically
able to supply more than twice this amount of electricity even though it is
only 1 meter wide in diameter.
Eskom in South Africa has a supply capacity of 58.09 GW of electricity nationwide, which can be matched by the theoretical electricity output of just nine (9) one diameter C-Drives or
just a single 2-3 meter diameter C-Drive.
It is noteworthy that at 24.5 meganewtons of unidirectional-thrust the 1 meter diameter C-Drive, in terms of thrust, comes close enough to the 38 meganewtons of NASA's Artemis SLS rockets which could lift 26 metric tonnes into orbit beyond the moon, yet is only a tiny fraction of its size.
*Note that amplification is calculated from rpm, not the 1:5 gear ratio of the C-Drive (this is for any physicist or engineer who thinks the amplification or net gain cannot be more than x5 because the gear ratio (z) is 1:5). Even though the gear ratio may remain fixed this does not prevent rpm from increasing, which means the gear ratio does not interfere with net energy gains (NEG). For instance, the impact force of a car travelling at 200Km/h that hits a wall is not determined by the gear[ratio] the car was in at the time of impact but by mass x acceleration at the time of impact. Similarly, rpm rather than the C-Drive's gear ratio is what determines the force with which the collider arm strikes the circular-wing, which is then converted into thrust or torque into electricity using generators. Therefore, for the example given above, where the collider arm is travelling at 4,316 rpm, which is 271m/s, when it impacts the circular wing, the net energy gain is 69,974 and not 5 (because mass x acceleration determines the magnitude of the impact not the gear the C-Drive was in at the time of impact). The gear ratio may affect how quickly a target rpm or velocity is achieved, however, once that velocity is achieved, the velocity[not the gear ratio] determines the force (mass x acceleration) of the impact. Therefore, the force produced and consequent net gain in energy (amplification) are, in this sense, independent of the gear ratio. This is why the net energy gain or amplification can be thousands [or more ] times greater than the limitation of the gear ratio. See the heading below to understand and workout how the C-Drive's is capable of delivering the rpm required to generate 6.6GWh of electricity.
By now you have been shown all the steps for making these calculations and should be competent enough to do the sense checking for yourself.
The Three (3) Simple Steps....
Lets do the math for Step 1: the Torque required to rotate the C-Drive upto 4,316 rpm
Equivalent to a Q - Factor of ≈70,000
The C-Drive must first generate the required centrifugal force in Newtons in Step 1 that will then be converted into unidirectional thrust in Step 2.
The Force required to turn the collider arm from rest to 4,316 rpm in 4 seconds is derived from momentum of inertia:
The C-Drives consists of 200Kg rotated mass, 0.6m collider arms
Torque (T) =mr2/3 (w2 - w1)/change-t
Where w1 = 0
w2 = radians per second
= 4316 rpm
=451.970 rads
Change in time = 4s
Mass (m) =200Kg
Radius (r) = 0.6m
Torque (T) = ((200)(0.6)2/3) (451.970-0/4)
= 24 x 112.9925
= 2,711.82 Nm
In order to rotate the C-Drive collider arm from rest or 0 to 4,316 rpm in 4 seconds it will take 2,711.82 Nm of Torque. The motor provides 1,420 Nm. There are 5 gearing options at (z), with a ratio of 1:1 to 1:5.
The C-Drive allows for the selection of any of the 5 gears during operation e.g.
The gear ratio of 1:3 will supply Torque of 3x1,420Nm = 4,260Nm > 2,711.82Nm
The gear ratio of 1:5 will supply Torque of 5x1,420Nm = 7,200Nm > 2,711.82Nm
Here is a table of all 5 gear ratios:
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When 1,420Nm is applied through a gear ratio of 1:2 to 1:5 the C-Drive has sufficient Torque (2,711.82Nm) to reach 4,316 rpm in 4 seconds. This rpm readily gives the C-Drive access to 24.5 million Newtons of Pan-directional or Centrifugal Force. It can either convert and apply this as Thrust or Torque. This is done in 3 Steps. |
Step 1 (continued from above) : The table above shows that the C-Drive easily achieves 4,316 rpm with plenty of spare capacity. At this rpm it is generating
24,513,276N of pan-directional non-propulsive force. See the centrifugal force equation.
In Step 2 the C-Drive will take the 24,513,276N of pan-directional non-propulsive force and convert it into 24,513,276N of unidrectional thrust that is propulsive.
The force arrows are animated from the diagram above to illustrate how the C-Drive converts neutral centrifugal force from collisions into uni-directional force, which can in turn be converted into torque.
In Step 3, if the C-Drive is secured it will instead convert the 24,513,276N of unidrectional thrust that is propulsive into 14,707,965Nm/s of Torque. See the torque equation.
As shown in the equation above the C-Drive when connected to generators will produce 6,647,563,646 Watts = 6.6 GWh of generated electricity. This is amplification or a Net Energy Gain of 6.6GWh / 95KWh = 69,974
Equivalent to a Q - Factor of ≈70,000 *
* Every fusion lab and investment around the world today struggles with ignition, all are barely able to gain a Q-Factor greater than 1, this shows that a drive system may be the missing component and technology required to make fusion energy immediately commercially viable. C-Drives offer the answer to this problem and generally provide a universal solution to the global problem of energy-scarcity.
The Conversion Steps [1-3] consist of:
Step1: [Centrifugal] Pan-directional Force Step 2: Unidirectional Thrust Step 3: Torque
Every step from 1-3 is compliant with conventional physics.
It is worth noting that this C-Drive configuration is not being applied at maximum capacity. See the spare capacity under Surplus Torque in the Table of Gear Ratios.
The limitation is of course the physical capacity and strength of the materials from which the C-Drive is constructed which may not be able to handle these forces. The option is to use specialised materials or increase the number of collider arms to share the load, which allows the C-Drive to achieve the same objective at lower rpm.
A Thrust to weight ratio comparison
* Zero emissions, not propelled by air, able to operate normally even in a vacuum, the table shows that air and gas vehicles offered by the aerospace sector simply hold no candle to C-Drives
At this point we have done the math to show steps 1,2 and 3 are viable. We have proof of concept showing the C-Drive converting pan-directional force into unidirectional thrust. Since unidrectional thrust and the torque that generates electricity are the same force applied to do different work this completes the integrity of the innovation, making it worthwhile to consider investing in.
*EVs and Horsepower
You may notice that at 4,316 rpm the C-Drive is producing 14,707,965Nm/s of torque. This torque does not have to run generators alone. If its a vehicle, this torque can be used to turn wheels as conventional cars, vans and trucks are seen operating today. Though, this amplified torque is simply too huge to apply to wheels, the C-Drive can apply this huge force delicately, using only tiny fractions of it required for the safe operation of the vehicle. Take a look at how much horsepower this vast amount of torque from the 1 meter diameter C-Drive translates to in horsepower.
Horsepower = Engine Speed x Torque /5252
=4,316 x 14,707,965Nm/s / 5252
=12,086,743.51 HP
Normally a present day vehicle does not need 12million horsepower. However, the C-Drive can tap into the percentage of this available horsepower to deliver the required amount for the safe operation of a vehicle. The giant engine of a cruise ship only produces around 100,000HP. The capacity to produce such huge levels of horsepower is demonstrative of the fact that C-Drives will exhibit the capacity to outperform rockets, with the additional advantage of being able to generate unidirectional thrust with no emissions. Horsepower at this level has a purpose which is for traversing large distances in space where such high horsepower values are actually quite small in comparison to the work that needs to be done to cover these vast distances.
Its important to remember that C-Drives can also induce thrust and lift for flight. This means that the wheels can be retracted and the vehicle lifted off the ground. C-Drive flight , no matter how high off the ground, is like magnetic levitation since the vehicle rests on the vector forces or Ki being produced by the C-Drive. In terms of navigation this use of Ki is so precise that the driver can set a fixed height above the ground for the vehicle .e.g. 5cm - 30cm (depending on the flatness of the floor, road or terrain being covered) for the vehicle to maintain, and the vehicle would follow the direction it is moved in with the same smoothness of ride, consistency and support that a mag-lev train has from a rail as it follows its track. In essence the C-Drive moves as though it lays its own unseen mag-lev track in any direction it moves.
Enter the Dragon Train: How C-Drive technology is more advanced than Maglev Trains
C-Drives are capable of better grip during navigation and propulsion than a maglev train's girder due to the tremendous force-grip of vectors using "Ki"
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The vector forces that create the force grip or Ki depicted by the blue arrows can secure the Circular Wing with greater force in newtons than the earth grips the maglev's girder. This makes C-Drives safer off the ground, in the air and in the sky. See how these forces counter rotate around the Circular Wing.
In a maglev train the passenger cabin can only go where the girder or rail track has been lain and fixed to the ground. A C-Drive incorporates both the cabin or train and the track into one vehicle (the way a tank lays its own tracks) and can therefore go anywhere, travel close to the ground or launch from the ground directly into space.
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An aeroplane rides air when it flies. When it flies a C-Drive rides the Collar or Circular Wing which in turn rides internal and external collisions depicted by the counter rotating blue arrows or HD-SRMF flowing around it. Technically, when the C-Drive is riding the Circular Wing, it is like riding the maglev girder or rail. This is why flight on a C-Drive will not feel like riding an aeroplane, passengers will feel like they are riding a maglev train. Imagine a roller coaster that can lay its own track as it moves in any direction, the control over movement will be this precise. Bumpy plane rides, and turbulence caused by changes in atmospheric conditions will be a thing of past. This is due to the fact that the vector forces that secure flight from C-Drives will be powerful enough shrug off air currents, gale force winds, hurricanes, drops in pressure that are a hazard to aeroplanes because they ride on air. Since C-Drives do not ride on air, but the Circular Wing which is the girder or railway track incorporated into the vehicle atmospheric conditions can be shrugged off making flight not only gliding smooth but also much safer for passengers, cabin crew and pilots. C-Drives will be capable of a safety, manoeuvrability and absolute air superiority no airplane that rides on air is inherently capable of today and in the future.
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Wouldn't you like to ride a magic dragon? Since C-Drives generate their own internal track using collisions of Ki, they can move as rolling stock on a conventional railway or lift off and land on railway tracks on the ground as conceptualized in the animation above. Each cabin behaves as a self propelled module that can move independently or in tandem with other modules to form the train.
Dragon Train: C-Drives will navigate with such great precision that they can engage and disengage from any kind of train track or surface which will be useful for logistics companies |
During a hurricane it is common to see cars weighing several tonnes being picked up by the wind thrown into the air and tossed down the road. A car or other vehicle that is suitably equipped with C-Drives could shrug of these wind driven forces moving and stabilising itself with tens of thousands of vector force or Ki with which to withstand even hurricane force winds. Even where the roads are icy and tyres lose grip with asphalt roads C-Drives do not need the vehicle's wheels to have contact with the ground to safely steer and move it, the driver consequently remains in perfect control of a vehicle despite being faced with these conditions.
With C-Drives as high speed trains the cost of this kind of transport has all the benefits of magnetic levitation without the cost of having to build hugely expensive maglev rail line infrastructure. Interestingly enough, C-Drive technology would allow maglev like trains to not only travel cross country, but these trains could also travel into space and back when cabins are D.U.S i.e. equipped to be utiized in space.
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| Mach II, Bridges not required |
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C-Drive Dragon Trains will be able to land on conventional train tracks or take-off from them due to having very precise navigation. |
As mentioned earlier the maglev girder becomes the C-Drive collar or circular wing. What is interesting is that the force with which the C-Drive vectors grip the collar or circular wing for navigation will be greater than the force by which the static girder is fixed to the ground for the safety of the maglev train. Technically this means C-Drives are safer than maglev trains. Even though they move independently, travel in the sky and can go anywhere the support the C-Drive vehicle or cabin has is greater than the support the maglev train has from the girder fixed in the ground. C-Drives, like maglevs, will be able to travel just a few centimetres above the ground safely at speeds well in excess of 600 Km/h with greater support to the vehicle (measurable in newtons) than the girder fixed to the ground. They offer much greater safety to the cabin and its passengers. This tremendous support goes with the C-Drive wherever it travels be it under water, on the ground in the sky or in space.
The C-Drive is estimated to produce 24 meganewtons of thrust. By modern day standards this is exceptional considering that SpaceX Starship is described as having 7,590,000 Kg-force of thrust and 40.8m Horsepower, 9 meters in diameter, whereas the 1 meter diameter C-Drive is estimated to be able to generate 2,499,858 Kg-force of thrust and 12m Horsepower, with zero emission by using a High Density Static Recycled Mass Flow (HD-SRMF). Pound for pound the C-Drive is remarkably more powerful than the propulsion or rocket technology being deployed by SpaceX. Technically the C-Drive represents more advanced rocket science or rocket propulsion technology than that used in
Starship.
Energy Suppliers need to remain aware that the demand for energy will continue to grow
This growth is likely to be in direct proportion to the depth and length of distances in space
vehicles can travel. The further vehicles need to travel, for instance in light-years, the greater the energy consumption required to get them there and back. C-Drives, by their ability to go further and faster will contribute to the growth in demand for energy, but by nature will also contribute to the increased availability of energy through amplification (net energy gain). This fact is useful as it creates the most ideal condition for the exploration of space, as C-Drives not only increase humanity's capacity to explore ever farther into space, but also enhance mankind's capacity to make existing sources of energy last longer and do more work, with much less pollution.
Humanity today is accustomed to the short distances on earth between cities and continents. These distances will soon be insignificant as the technology to arrive anywhere on earth, regardless of how far off in a few minutes or seconds becomes commonplace. When a C-Drive harnesses amplification and puts out tremendous amounts of power in gigawatts or terawatts that would easily solve humanity's current energy and pollution problems its important to bring this leap in technology into perspective by determining the distance in space this huge jump in available energy will cover. It then becomes clear that this gain is actually tiny in comparison to the distances in space that need to be crossed. It shows that these distances alone and the need to cross them frequently and in the shortest possible time is one of the reasons why the demand for and need to supply energy will never cease. We are not talking about the amount of energy the average household uses today for cooking, lighting, transportation and so on. For instance, the amount of energy a single household consumes to travel for one year through space could one day in the future easily be equivalent to the total consumption of energy in the United States in one year in Terawatts, simply because the distances traversed are so vast and must be covered in shorter and shorter travel times, for example, a frequently traversed distance consisting of several lightyears such as monthly commutes to Alpha Centauri and back which is 4.367 light years from earth. In this sense energy providers will continue to face challenges, and will have to keep innovating to keep up with levels of energy consumption that by far outstrip the energy that humanity currently consumes.
Alpha Centauri is 4.367 lightyears from
earth
Its been pointed out that Stage II science cannot design a C-Drive because there are innumerable mistakes, especially in physics. Unfortunately today's fusion reactors are built from primitive Stage II levels of thought. They are built fundamentally from magnetic "fields" whereas advanced Stage III levels of thought (by which it becomes possible to design a C-Drive) deny the existence of fields, even magnetic fields as being "field effects" and therefore describes fields as being as good as the figment of a scientist's imagination. For how long are we expected to keep re-enacting the "emperor has no clothes" when it comes to non-existent fields? The same problem with "fields" applies to Einstein's Space-Time, underpinned by Euclidian Geometry or Geodesics. For more on this read the Science of a Collision Drive
here. Also read about the Spandex Experiment Error
here. In order to be able to design the C-Drive these mistakes and misconceptions had to first be corrected using the Stage III approach.