Possible Vortex Types

A ladder connects the high end of one spiral with the low end of another, higher dimensional spiral. The movement from one end of the ladder to the other involves an increase or decrease of one dimension level. Six different ladders have been found within the first forward half cycle. The spire, helicone, amplicone, pylon, aureole belt and the omega ladder. All of them have been confirmed to exist, except one of them, the omega ladder, has not fully been observed. How it has been determined to exist is explained on both this page, and on the page about morphing and shifting.

The basic shape of movement that dominates in all of the ladders is a movement that continuously progresses in a constant direction of one axis or in the direction of two or more axes simultaneously, sometimes combined with a helical movement, but does not involve a spiral-type of movement. Spirals tend to align themselves horizontally under the influence of gravity. But the ladders that move along a single axis tend to align themselves vertical under the influence of gravity.

The sum peripheral movement in a ladder can go from the low end to the high end, or from the high end to the low end, yet I still haven’t seen all the ladders move in both directions. In most ladders we see a movement that goes from the low end to the high end. The helicone is one ladder which I’ve seen move in both directions. It is not fully understood what the conditions are for a ladder to flow in the opposite direction, thus from the high end to the low end.

Keep in mind that in most cases when you encounter a vortex in our physical world, then you only see a single vortex without a connection to a subsequent vortex. Only in some cases these connections are revealed to us. In most real-world examples shown in photographs or videos, you will only see a single ladder. But examples of ladders connected to subsequent vortices will also be shown throughout these pages.

Kazakhstan Light Phenomenon

Kazakhstan, 30th June 2010

This trail of light appeared on a Wednesday night in the sky over the capital city of Bishkek, Kazakhstan, which later disappeared in a bright flash. The exact source and cause of this glowing trail of light is unknown. There have been more of these incidents with similar trails of light forming in the sky. The photo below on the right was taken in north-west Russia in 2011. 

Kazakhstan
Severodvinsk, 20th January 2011

The initial cause of the phenomenon could likely to be the plume of the exhaust of a rocket. When a rocket takes off at ground-level its plume does not look like anything on the photo’s above. But at very high altitudes, the plume of a rocket widens, and for some type of rockets it widens to the extent that the plume changes into the same shape as light phenomenon seen in Kazakhstan, as shown in the photo below.

The color and size of the light phenomenon seen at Kazakstan is different from that from the exhaust of a rocket. So if it is caused by a rocket, then it still needs to be understood how under rare conditions some rocket plumes can change into this amazing bright trail of light.

The photo below shows a corona discharge (not to be mistaken with the sun’s corona, which is a different vortex type) from a Wartenberg pinwheel in air caused by applying a high voltage, ~30kV. Those 19 different streaks emerging from tips of those pins all look like vortices from the same type, same shape and appearance. They look closely similar to the Kazakhstan vortex, yet they’re a much smaller size.

Image by G1MFG, (Wikimedia), under CC BY-SA 3.0 license

It could be possible that the Kazakhstan phenomenon is also some kind of electrical discharge, of the same type as that of the Wartenberg pinwheel. In that case the phenomenon could be caused by the build-up and release of an electrical charge in the sky, and the cause of its release could then be the exhaust of the rocket, which starts the initial vortex movement.

Termite Air-Conditioning System

A termites nest has an air-conditioning system build at the base of the nest, some feet underneath the ground, which is meant to keep the structure above at cool temperatures for the termites to be able to live in this amazing habitat that they’ve build. This air-conditioning system consists of lines of concentric veins, that sort of form a very steep cone. This video by the BBC shows this air-conditioning chamber filmed from within the structure.

This structure made by termites looks very similar to a supercell, at least, one form of supercell. There are different forms of supercells that have different shapes. The two photos below show one type which has a similar shape as the termites nest air-conditioning system (you need to consider the empty space in between the veins as the body of the vortex, not the veins themselves. The vortex flows in between the veins). It could be that we are looking at a structure whose functionality can be explained by understanding the movement of a particular type of vortex, one that has not been identified yet. We could be looking at a new type of vortex, similar to both phenomena.

What I can’t see in the video is if the veins of the air-conditioning system spiral inward. If so then it is more likely that this structure is similar to this type of supercell. If not then both shapes can still be related to one another. The structure made by the termites could be a dilated form (thus one cycle higher) of the vortex that forms the supercell.

What vortices are located near the EM spectrum in other cycles?

On the page about motion near the EM spectrum, I’ve discussed a few of the near-EM vortices that exist within the transformation sequence, yet all of them so far were from the first lower and first upper cycle. The question that now emerges is what near-EM vortices there are in the other cycles. For example, what near-EM vortices are there within the second cycle?

It is not certain what those vortices are, but there are some hints, and some ideas that we can derive from them. The lowest dimensional known vortex within the second cycle is the hyperbelt. A possible lower dimensional vortex that exists at a lower position within the sequence, could be a vortex that has the shape of a star, one that is planar, flat.

There are several reasons I think this might be so. First is that the star shape fits in a connected sequence. The star shape can connect to the EM crossing location (which has an unknown shape at that position) at its low end, and to the hyperbelt at its high end. Because the hyperbelt is flat the star is expected to be flat as well.

Second reason the star shape might be a near-EM vortex is because that is the shape one might expect such a vortex to be. Near-EM vortices are incomplete vortices, located on one half of a dimension level. The star shape is like one of the disks from the second cycle that has partially been cut away. The shape can not form a full disk because the vortex can only span over half a dimension level.

Image by Blowgun (Wikimedia), under CC BY-SA 3.0 license
Image by Wilson Bentley

Third reason are the throwing toys. Within the second cycle we find the disk vortices. Most of the shapes of these disk vortices are also the shapes of man-made throwing toys. Throwing rings, discus and frisbees for instance, these objects all reveal to us what the appropriate shapes for the vortices are. Some examples of these toys were shown on the page about the disks, but there are still a few more throwing toys that are unaccounted for. One of these toys, which should actually not be called a toy but a throwing weapon, is the shuriken. The shuriken suggests that there could be a vortex that is shaped like a star, and that vortex could be, like all the other disks, within the second cycle, the fourth half-cycle to be precise.

Another interesting thing is that the shape of the shuriken looks somewhat similar to the shape of snowflakes. There could be a relation between the two. Crystals in the first half-cycle are located close to the EM spectrum, close to the zero point. It could be that the movement that creates a snowflake is one that is close to a location that is exactly one or two cycles away from the zero point. The zero point is located at the start of the first half-cycle. Therefore the movement of the snowflake could be located at the start of the second half-cycle.

NASA SpaceX Rocket Launch
Russian Missile Launch

The fourth reason why I think that the star-shape could be a near-EM vortex at the start of the second cycle are rocket nozzles. The amberon we found at the start of the first cycle, which we find in the form of shock diamonds, that come out of a rocket nozzle. What also comes out of rocket nozzles are bright star-shapes, optical phenomena. There is a good possibility that those star shapes are formed by a near-EM vortex, because they come from the same source as the shock diamonds, the same source as the amberon. These bright stars are not physically there, they’re optical phenomena formed within the camera lens, but despite that I have a strong feeling that they’re formed by the near-EM vortex, which might be a disk, or another vortex class.

All content on this site that is authored by Peter.A.Venis is licensed under the Creative Commons CC BY 4.0 license, unless otherwise mentioned. Most pages on this website also include material from other authors, under different licenses. Both the author’s names and the licenses are mentioned in the file names whenever this information is known and can be provided. The presence of work from other authors on this website does not necessarily imply that those authors endorse the contents of this website.

A word that is often used on this website is the word ‘vortex’. Many sources describe a vortex as a movement in a fluid that has a rotational flow. Yet many of the vortices that I describe on this website do not show a visible rotational flow. I took the liberty of using the word vortex for describing a phenomenon that had not been understood before, one that links together rotational and non-rotational movements. Even a movement in a straight line can in some cases be categorized as a vortex, if it is known that that movement is created by certain identical conditions. So keep in mind that the word ‘vortex’, within the context of the infinity-theory, has not the exact same meaning as other sources describe.

Cycles

Vortices

Vortices and Dimension Levels

Type Dimension Cycle Class Rota-tional State of Equilibrium
Level3 Fallback -4.75D to -4.25D 2nd Unknown no Unknown
Level2 Fallback -5.75D to -5.25D 2nd Unknown no Dye
Unknown -6.0D to -5.75D 1st Half a spiral Unknown
Electricity 6.0D <> -6.0D 1st EM Spiral yes –
Unknown 5.75D to 6.0D 1st Half a Spiral Unknown
Unknown 5.75D (CW<>CCW) 1st Outer Bridge Unknown
Unknown 5.75D 1st Exterior Tunnel Unknown
Unknown 5.75D 2nd Bell Unknown
Omega Ladder 5.25D to 5.75D 1st Ladder no Unknown
Omega Bridge 5.25D (Inw to Outw) 1st Inner Bridge no Unknown
Ultraduct 5.25D (Inw to Outw) 1st Interior Tunnel yes Unknown
Mirage 5.25D 2nd Disk no Silver
Scroll Ring 4.75D to 5.25D 1st Spiral yes Saturated Fat
Wake Belt 4.75D (CW<>CCW) 1st Outer Bridge no Slime
Bubble 4.75D 1st Exterior Tunnel no Soap
Tubular Ring 4.75D 2nd Bell yes Unknown
Aureole Belt 4.25D to 4.75D 1st Ladder no Unknown
Laminar Belt 4.25D (Inw to Outw) 1st Inner Bridge no Unsaturated Fat
Gyroduct 4.25D 1st Interior Tunnel yes Vulcanized Rubber
Capillion 4.25D 2nd Disk no Tin
Revolute 3.75D to 4.25D 1st Spiral yes Gelatin
Revodome 3.75D 2nd Bell yes Unknown
Cradle 3.75D 1st Exterior Tunnel no Chicle
Pilaster 3.75D (Outw to Inw) 1st Outer Bridge no Petroleum
Pylon 3.25D to 3.75D 1st Ladder no Unknown
Lentillion 3.25D 2nd Disk no Gallium
Exobar 3.25D 1st Outer Bridge no Pitch
Bulb 2.75D to 3.25D 1st Spiral no Air
Vessel 2.75D 2nd Bell no Unknown
Exoduct 2.75D 1st Exterior Tunnel no Natural Latex
Endobar 2.75D 1st Inner Bridge no Unknown
Amplicone 2.25D to 2.75D 1st Ladder no Dust
Mercury Belt 2.25D 2nd Disk yes Mercury
Troth 2.25D (CW<>CCW) 1st Outer Bridge Honey
Swirl 1.75D to 2.25D 1st Spiral yes Water
Unknown 1.75D 2nd Bell Unknown
Whirlpit 1.75D (Inw to Outw) 1st Exterior Tunnel yes Clay
Helibar 1.75D (Inw to Outw) 1st Inner Bridge yes Earth
Helicone 1.25D to 1.75D 1st Ladder yes Marl
Hyperbelt 1.25D 2nd Disk yes Unknown
Enexus 1.25D (CW<>CCW) 1st Outer Bridge no Resin
Disc 0.75D to 1.25D 1st Spiral yes Gypsum, Some Metals, Wood, Bone
Unknown 0.75D 2nd Bell Unknown
Helix Tunnel 0.75D 1st Exterior Tunnel yes Baked Clay
Monolith 0.75D (Inw to Outw) 1st Inner Bridge no Rock
Spire 0.25D to 0.75D 1st Ladder no Crystal
Unknown 0.25D 2nd Disk Titanium
Amberon (perhaps) 0.25D 1st Outer Bridge Amber
Hyperkone 0.0D to 0.25D 1st Half a Spiral yes Diamond (when angular)
Amberon (perhaps) ~0.0D 1st Exterior Tunnel Glass
Visible Light 0.0D 0 EM Spiral no –
Photosphere ~-0.0D -1st Exterior Tunnel no Unknown
Amplipole -0.25D to 0.0D -1st Half a Spiral no Unknown
Corona -0.75D to -0.25D -1st Ladder no Unknown
Sun Magnetic Field -1.25D to -0.75D -1st Spiral Unknown

Properties of High and Low Dimensionality

High dimensional  (Yin)Low dimensional  (Yang)
General CharacteristicsGeneral Characteristics
ExpandedContracted
LooseTight
Sensitive to external motionInsensitive to external motion
More projected fieldLess projected field
Number of dimensions being projected is higher than that of our human perception (greater than 3D). Thus complexity is concentrated over a smaller volume by projection.Number of dimensions being projected are lower than that of our human perception (lesser than 3D). Thus complexity is spread out over a larger volume by the projection.
More asymmetryMore symmetry
Slower movementFaster movement
Time runs slower (macrocyclic effect)Time runs faster (macrocyclic effect)
Vortex CharacteristicsVortex Characteristics
DiffusedFused
High number of meridiansLow number of meridians
Complex movementSimple movement
Less frictionMore friction
Long vortex lifespanShort vortex lifespan
CurvedAngular
Large scaleSmall scale
Wave CharacteristicsWave Characteristics
LooseTight
Slow propagationFast propagation
High frequency wavesLow frequency waves
Short wavelengthLong wavelength
Directional peripheral wavesSpherical peripheral waves
Short rangeLong range
Characteristics of MatterCharacteristics of Matter
LighterHeavier
SoftHard
IntangibleImpenetrable
Flexible / non-constrictedRigid / constricted
Less frictionMore friction
Higher compressibilityLower compressibility
High Reynolds numberLow Reynolds number

Direction of Movement

ContractionExpansion
Decrease in amount of field that is projected from the onefield (either by decrease in angle of projection, decrease of scale size, decrease of cycle number, or change of another property)Increase in amount of field that is projected from the onefield (either by increase in angle of projection, increase of scale size, increase of cycle number, or change of another property)
Peripheral movement from high end to low end of vorticesPeripheral movement from low end to high end of vortices
Tightning, hardeningLoosening, softening
Increase in velocityDecrease in velocity
Fusion of peripheral movementsDiffusion of peripheral movements
Pulling forcePushing force
Acceleration of timeDeceleration of time

Properties

Sequence