Building a gravity generator for making waves to surf 

This writing is part of a series of articles relating to discovering a new mode of transportation. The previous post was about surfing gravity waves.

To build a gravity surfboard, the action of the board requires a mass to react to. A gravity wave generator is necessary to create the waves to surf. Viewing the small yield environment extending to the surface area of surfboard contact, it provides a target impact area. This is the size of gravitational toroidal field needed.

One of the first questions

In starting the project, one of the first questions to ask about building a gravity wave generator: what apparatus can make a wave? A pulse regulator. What type of apparatus can do that?

This question provide insight to who the audience is. A common response from an engineering perspective would be to consider a pulse regulator as an electronic device. Many people who look at the question, are without an answer to what a pulse regulator is. People in the medical industry might associate a pulse regulator as a device used to maintain pulse. But, ask a kid who has the advantage of simplicity. Their response; provided they understand the question, would be: the heart is a pulse regulator.

When building complexity, simplicity is the direction  

This project has to maintain an open perspective and follow the path of nature's simplicity.

With this in mind, how can the operation of a heart be applied to engineering a gravity wave generator? The first consideration is the possibility of a lobe type configuration to an axis, rather than a piston type mechanism.

It's imperative to keep the view of the gravity device operating in its relation to gravity's linear motion at light speed.

As theorized, gravity is angular momentum along the path of particle mass traveling at light speed. With this view, gravity wave amplification would require a synchronous interaction with two or more particles; rather than a starting and stopping motion.

A power source might be required to push amplification.

Inertia

Looking at another aspect of gravity related properties is inertia. There are a few adaptations of using inertia as energy. The flywheel is an engineering standard for short term energy storage.

Commercially, inertia is used in motors. As defined by the Celera Motion company, the application of inertia is a property of matter by which it continues in its existing state of rest or uniform motion in a straight line, unless that state is changed by an external force… It can be calculated using the formula density*1.57*Length*(Ro^4-Ri^4), where density is the material density, length is the length of the rotor cylinder, Ro is the outer radius and Ri is the inner radius.

Inertia can also be explained as an action of gravity. With gravity identified as angular momentum along the path of particle mass traveling at light speed (coinciding with Einstein’s Theory of Relativity, wherein all things are traveling in a linear path at light speed).

Since inertia is a function of particle mass as gravity, it plays a role in building a gravity generator. Designing a gravity generator is merely a matter of identifying the pieces and putting them together.

There are a couple more examples of inertia. Here is a link for an Inertia Engine described in a patent.

And, this link is the example of one of most vague international patents ever filed.

Then, of course, NASA is busy with its theory for EM Drive.

Last but, not wanting to be least in a quick analysis of inertia engines is Wikipedia with its: Reactionless Drive.

What’s the ultimate goal for CATTCC? To discover an efficient mode of transportation capable of floatation. Then to develop it. At this particular time in discovery, the focus is building a gravity generator to enable a surfboard type of device to ride on. It seems clear that a gravity generator uses inertia. Inasmuch as an electric generator doesn’t spin at light speed, it would also be unnecessary for a gravity generator to have a rotational spin of light speed to generate a gravitational toroidal field.

What do we have so far to build upon? Gathering the tools for the design: spin, inertia, and a toroidal field.

There is a direction to explore. How fast of a spin could be established to a mobius type movement with an applied electromagnetic force?

One of the questions to answer is what formulas are used to calculate a gyroscope’s action. A gravity generator would exceed a gyroscope’s spin.