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# Torus knot

Lexicon ( Torus knot )

Fig. 2.  Illustration of 3D helical motion on a torus surface, and the 2D rectangular transformation of the helical path as parallel lines. From Scholarpedia.org, contributed by the curtor of Scholarpedia, Dr. Luigi Chierchia; Dipartimento di Matematica, Universita' di Roma Tre

## Topologically

The torus knot describes the topology of a mathematical relationship of two spin momenta (dual rotations with independent but coupled centers that harmonize at certain integer ratios to form a torus knot.

Fig. 2. A 7:5 torus knot of a larger, elliptical minor radius as a magnetic-pinch configuration.

Fig. 2 illustrates the simultaneous path of two angular momenta tracing one line they both share at any point in time.

The simple helix around a torus ring is one degree of torus knot, without entanglement, as a degree of 1:X, where X is the number twists in the helix during 1 circle around the torus ring.

### Entanglement with helical twists of earlier rotations

Fig. 4. A torus knot of twelve rotations around the toroid, and seven helical twists through the toroid hole.

### Moebius edge

The torus knot frames the corners a twisting cycloid through the volume of the torus form of the knot. The number of corners of the twisting cycloid formed by a torus knot of P:T degree is the value of P. That is, if a torus knot has three poloidal turns, P, for any number of twists through the hole per turn (T), there will yet be three points of the twisting cycloid described by the loops of the torus knot. However, in the fashion of the classical Moebius strip of 1/2 twist, the cycloids of odd-numbered P torus knots has only one corner (1/2, 3/2, 5/2, 7/2, etc.)

The classical Moebius strip (a twisting plane) is a twisting cycloid with an edge describing a torus knot of 2:1 degree. The class of 3:X knots have a triangular cross-section pattern, the 5:X a pentagonal pattern, etc. Notice the square pattern in the cross-section of the 4:3 knot below:

## Electromagnetic qualities of torus knot electroforms

The 120° full-twist separation of the (1-3) torus knot increases more in torus knots of higher poloidal turns. The (5-3) torus knot of Fig. 4 has 120° × 5 increase of separation between full-twists, even though other full-twist loops will be entangled between any two adjacent full-twist loops (through the hole and back, one twist around the torus ring circumference), as animated in Fig. 2.

Fig. 4. A 5:3 torus knot. The red and blue sections are equal-length halves of the knot in conjugate symmetry causing magnetic cancellation as a bifilar circuit across the torus knot diameter.

This section is an early drapht.

## Video illustrations by Daniel Piker

Epicycles on epicycles, Cable knots on cable knots
video by Daniel Piker
An extremely simple system that produces a wide range of curves.
All that is happening is rotation at a constant speed about an axis which is itself rotating about an axis, (rotating about another axis).
There are 4 parameters per arm :
radius, 2 angles for the rotation axis (precession & nutation), and rate of rotation.
When the axes are all parallel the resulting curves are planar and include cardioids, nephroids, epicycloids and many others.
When the second axis is perpendicular to the first, and the rates of rotation are coprime, the curves are torus knots.
When the rates of rotation do not have a common factor the curve is chaotic.
Superhelices and torus knots
A superhelix is simply a helix winding around another helix. First you see the result of increasing the radius, then varying the rate of twist. This causes some surprising topologically complicated knotting.
Next is shown the path of a particle rotated in 4D. By varying the ratio of the 2 components of this double rotation ( en.wikipedia.org/wiki/SO(4) ) different torus knots, unknots and links are formed.
Finally, the progression is shown from line to helix to superhelix to 'super-superhelix', a progression that could obviously be carried on recursively.