Disturbance
of T.A.O. When we disturb the smooth surface of a lake by supplying some energy to it in form of our dipped-in finger - and we can retract the finger immediately - it is to be expected that the surface generates waves which propagate. We did not really add something to the lake, we only lent it one finger so to speak, and yet the lake has a new appearance now. |
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Fig.4 |
Let’s compare our T.A.O. structure to a three-dimensional lake. In figure 1 we shifted one row of the structural points in order to see that in this case they will immediately need more space than before. All granules are standing in each other’s way. Therefore every disturbance of this structure is gradually communicated to all other granules. Something is happening inside this lake, and it is only an informational event because the lake still consists of the same something. Just think about how multifarious the play of waves on a lake can be and how many patterns and new structures can come into existence. |
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Figure 6b |
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On the left side of the figure we can see how a vibration - the impulse moves downwards - reacts back on itself, i.e. it is also transmitted in the opposite direction through the shifting of the granules. As a consequence, everything is at rest again after the shove. Therefore not an oscillation is moving through this matrix but a tremor. Later, we will substantiate in detail why there cannot be any oscillations within T.A.O. On the right side of the figure, we see an impulse coming towards us, from the front of the structure so to speak. Every disturbance of a granule is of course also transmitted to all granules which are arranged perpendicularly to the movement of the impulse. If the disturbance is a torsional vibration, the transmission cannot take place simultaneously but only in such a way that the impulse is surrounded by further disturbances in its direction of movement so to speak. We can define this form of impulse more exactly by simply saying: a disturbance spirals through the structure of T.A.O. Starting from an arbitrary point it seizes all other points of T.A.O. and therefore has a discernible direction of movement because the ancillary shoves caused by the main shove follow temporally behind. Since the individual granules always oscillate or vibrate only around their own area, there isn’t any real movement in T.A.O. The transmitted impulse is only information passed-on. The content of this information - that is to say form and extent of the disturbance - maybe means “energy” for a possible recipient which uses a language like we do - and actually he could already call it “light”… But one thing after the other! Since every disturbance is equalised retroactively of its own accord - the granules are pressed back into their close-grained, dense texture - there will always be only one single disturbance or vibration running through the structure while everything becomes smooth and at rest again behind it. And we see a considerable difference to the allegory of the lake: an impulse does not cause a real wave! Just to emphasise it again: everything is at rest before and after the impulse. When we dip our finger into a lake for a moment we generate a series of waves which spread in circles. Very metaphorically speaking, if we dipped our finger into T.A.O. for a moment, the result would be a single shove (and only one “circle”) spiralling through T.A.O. It consists of two different movements: the forward movement and the perpendicular radiation of further shoves. Both components are shown in figure 5. This relay of impulses results automatically from the nature of the structure. The form of the applied impulse is significant. When we make a granule vibrate, the radiating shoves will be equally intensive in all directions; when we make the granule move only into a vertical or horizontal direction, the impulse passed on to the granules which do not lie in this direction will be weaker. In that way, we polarised the impulse so to speak.
When we disturb T.A.O. once - figure 6a, a) - and then a second time, a second shove will follow the first one without being in direct connection with it. Neither would a third one have anything to do with the previous ones – figure 6a, b). Frequency is the name we give to a succession of several impulses in the same direction within a certain time. The intervals between one shove and the next is called wavelength without signifying a real wave. For linguistic reasons, however, we will continue using the term wave because we are now aware of the little but significant difference.
When we designate one directional plane of the impulse as the “electric” one and the one perpendicular to it as the “magnetic” one, we will get a good expression for the sequence of several impulses: “electromagnetic wave“. Well, this term is already in use, and of course, the process in T.A.O., as we just described it, is in principle nothing but an electromagnetic wave as symbolically shown in figure 5a. But the designations “electric” and “magnetic” don’t have any special meaning for us
yet.
In our hypothesis, we could of course also stimulate a granule in the centre of T.A.O to start oscillating or rotating or we could give it a shove (which would be the more correct way of looking at things). As a consequence, one impulse would run to the right and one to the left. And we would also discover that one impulse began spiralling to the right and the other to the left starting from the point of generation (figure 7).
Hence there are two spiral paths with different spatial orientation. With this trivial insight we are already in a position to describe the material events in this universe entirely, as strange as this may sound at this point. But all discoveries which are necessary to be made in the following are a direct result of this spatially different orientation of impulses. With the spatial condition we come across the third important factor of these few elementary basic concepts which are responsible for the existence of the world: space. The other two are: energy and time. All three concepts are the result of each other because if there were not any intervals between cause and effect, a spatially defined order would not be
possible. |
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1 Nature does not know any straight paths. Wherever something grows or moves a spiral is the final result. Since Galileo and Newton, the physicists have put in our heads: that the most natural form of movement is the uniform progressive motion in a straight line. But in truth everything in nature deviates from the straight line and moves in the form of spirals. Everything in nature expands or flows - from inorganic crystals to animated beings up to star clusters and galaxies. But almost nothing grows or flows uniformly. Let’s imagine something is rising like a tree – the trunk of a plant, the calcium carbonate skeleton of a mussel, which grows vertically upwards, or the stream of gas exhausted by a star. As long as there are no disturbances, the cohesive mass – cells or gas molecules – fills the space uniformly forming a hose. But as soon as one side is growing faster (because more energy is flowing there) or slower (due to friction) than the other, the hose will bend to one side - in fact the stronger, the more it grows or the more it is retarded. A spiral will finally originate from the bend. Moss from STS–87, showing spiral growth patterns developed in the dark in microgravity. http://weboflife.nasa.gov/currentResearch/currentResearchFlight/sts107SeekingTheLight.htm
The solder, heated, became a molten blob with a droplet of rosin clinging tight to the outside. Solder melts: that's not too surprising. It's the behavior of the rosin that amazed. As the temperature increased, the droplet began to spin, round and round, faster and faster, like a miniature carnival ride.
http://science.nasa.gov/headlines/y2004/16aug_solder.htm?list610324
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