Tie knot

from Wikipedia, the free encyclopedia

With the tie knot , the loop of the tie is created, which ensures the mechanical hold on the neck. The tie knot can be divided into the standard knot, like the Windsor or the Pratt knot, and the special forms, like the Onassis knot, the inverted knot or the square knot.

In some embodiments, is located below the node a small groove or fold, in the technical jargon "dimple" (eng. For dimples , depression ) called. There are opponents and supporters for this particular expression. It is up to the taste and preference of the wearer of the tie whether or not a tie crease contributes to the good looks.

Standard node

Tie diagram zoom symmetric.svg symmetrical knots Tie diagram zoom non-symmetric.svg asymmetrical knots
Tie diagram done.svg Seam points towards the neck small


big

Half Windsor Knot (*)
Windsor Knot *
small


big
Four-in-hand *
Victoria *
Cavendish (*)
Tie diagram inside-out done.svg Seam points outwards small


big

Pratt (Nicky *)
Andreas *
Balthus *; Hanoverian (*)
small


big
Little Knot
Kelvin
Plattsburgh (*)
Grantchester *
()* The knot is self-releasing,
(*)meaning that it will disintegrate completely when the narrow end is pulled up out of the knot.
(*)(This is exactly the case if the knot ends with a loop from the leftor a loop from the left.)
(*) There is a self-releasing variant of the knot

Standard knots are knots in which the wide end of the tie is looped around the narrow end without torsion . This creates an adjustable loop and the narrow end can be pulled back and forth through the knot.

The mathematicians Thomas Fink and Yong Mao have systematically examined all tie knots that can be tied in this way and described a total of 85 knot variants for ties of normal length. The majority of these knot variants, however, result in knots that are misshapen or difficult to tighten. This means that the number of nodes that can be used in practice is manageable and only contains a few variants of a node class (see section Systematic classification of standard nodes ).

The four classics

The pictures on the right are reversed, like your own mirror image.

Four-in-hand

Tie diagram start.svg Knot-better.png Tie diagram better2.png Tie diagram lc-end-better.png

Also known as a simple knot .
The origin of the name four-in-hand (“four in hand”) has not been clearly established. One theory is that coachmen tied this knot on their reins. Others believe that the members of the London Four-in-Hand Club made this tie knot socially acceptable.

Half Windsor knot

Tie diagram start.svg Knot-better.png Tie diagram rcl io-better.png Tie diagram lr-better.png Tie diagram rc-end-better.png

Often wrongly called "simple Windsor knot".
It is not known whether the half Windsor knot emerged from the Windsor knot or was created independently. Occasionally this knot is also referred to as a half English or Turkish knot.

Self-releasing variant

Tie diagram start.svg Knot-better.png Tie diagram rcr io-better.png Tie diagram better2.png Tie diagram lc-end.svg

A bit more asymmetrical than the other variant.

Windsor knot

Tie diagram start.svg Tie diagram lcr-better.png Tie diagram rl io-better.png Tie diagram lcr io-better.png Tie diagram r l-better.png Tie diagram lc-end.svg

Also often called "double Windsor knot".
The name can be traced back to the Duke of Windsor , who did not invent this knot himself. In his book A Family Album (Cassell, London, 1960) he writes that the knot invented in the United States was mistakenly named after him because he always wore thick tie knots. However, these were caused by the thick cloth of his ties and not by a particularly complex knot. Sometimes there is also the term English knot .

Variant with two ring movements

Tie diagram start.svg Tie diagram lcl-better.png Tie diagram lcl-2-better.png Tie diagram rcr io-better2.png Tie diagram rl.svg Tie diagram lc-end.svg

This variant with two ring movements leads to a slightly narrower, but still full knot. It fits most ties and is therefore very popular.

Variant: Persian knot

Tie diagram start.svg Tie diagram lcl-better.png Tie diagram lcl-2-better.png Tie diagram rcl io-better-2.png Tie diagram lr.svg Tie diagram rc-end.svg

The Persian knot is a Windsor knot with a ring and diagonal movement. This creates a knot that is not self-releasing.

Pratt knot

Tie diagram inside-out start.svg Tie diagram inside-out lcl io.png Tie diagram inside-out lr.png Tie diagram inside-out rc-en.png

The Pratt knot was invented by US Chamber of Commerce member Jerry Pratt . Occasionally the knot is also referred to as the Shelby knot : after Pratt taught TV presenter Donald Shelby its knot, he often wore it on his shows.

Self-releasing variant ("Nicky")

Tie diagram inside-out start.svg Tie diagram inside-out lcr io.png Tie diagram inside-out rl.png Tie diagram inside-out lc-end.svg

This variant has a slightly higher dimensional stability.


Further

Saint Andrew's knot

Tie diagram inside-out start.svg Tie diagram inside-out lr 2.png Tie diagram inside-out rl io.png Tie diagram inside-out lcr io 2.png Tie diagram inside-out rl.png Tie diagram inside-out lc-end.svg

Balthus knot

Tie diagram inside-out start.svg Tie diagram inside-out lcr io.png Tie diagram inside-out rcl io.png Tie diagram inside-out lcr io.svg Tie diagram inside-out rl.svg Tie diagram inside-out lc-end.svg

Hanoverian knot

Tie diagram inside-out start.svg Tie diagram inside-out lr.svg Tie diagram inside-out rcl.svg Tie diagram inside-out lr io.svg Tie diagram inside-out rcl io.svg Tie diagram inside-out lr.svg Tie diagram inside-out rc-end.svg

Named after the Hanoverians
The Hanoverian knot is an extension of the Windsork knot.

Self-releasing variant

Tie diagram inside-out start.svg Tie diagram inside-out lr.svg Tie diagram inside-out rcl.svg Tie diagram inside-out lr io.svg Tie diagram inside-out rcr io.svg Tie diagram inside-out rl.svg Tie diagram inside-out lc-end.svg

Victoria knot

Tie diagram start.svg Tie diagram lr io.svg Tie diagram rl.svg Tie diagram lr io.svg Tie diagram rl.svg Tie diagram lc-end.svg

Variant: Prince Albert Knot

In the last step of the Victoria knot, the broad end is passed under both horizontal strips. The result is a knot that is reminiscent of a calyx, similar to a square knot .

Cavendish knot

Tie diagram start.svg Knot-better.png Tie diagram rl.svg Tie diagram lcr.svg Tie diagram rl io.svg Tie diagram lr.svg Tie diagram rc-end.svg

The Cavendish knot is created by executing two four-in-hand knots one behind the other .

Self-releasing variant

Tie diagram start.svg Knot-better.png Tie diagram rl.svg Tie diagram lcl.svg Tie diagram lr io.svg Tie diagram rl.svg Tie diagram lc-end.svg

Small knot

Tie diagram inside-out start.svg Tie diagram inside-out lr.svg Tie diagram inside-out rc-end.svg

Also known as an oriental knot .
This node is the final component of all standard nodes. It is very popular in China. To achieve a sizable knot, you need a tie made of thick cloth.

Kelvin knot

Tie diagram inside-out start.svg Tie diagram inside-out lr.svg Tie diagram inside-out rl io.svg Tie diagram inside-out lr.svg Tie diagram inside-out rc-end.svg

Named after Lord Kelvin .
As with the Victoria knot , a variant is also possible here: in the last step, the wide end can be pushed through under both horizontal strips. The Kelvin knot is the smallest knot where this is possible.

Plattsburgh knot

Tie diagram inside-out start.svg Tie diagram inside-out lcr io.svg Tie diagram inside-out rcl io.svg Tie diagram inside-out lr.svg Tie diagram inside-out rc-end.svg

Named after the city of Plattsburgh in the USA .

Self-releasing variant

Tie diagram inside-out start.svg Tie diagram inside-out lcr io.svg Tie diagram inside-out rcr io.svg Tie diagram inside-out rl.svg Tie diagram inside-out lc-end.svg

Grantchester knot

Tie diagram inside-out start.svg Tie diagram inside-out lr.svg Tie diagram inside-out rl io.svg Tie diagram inside-out lr.svg Tie diagram inside-out rcl.svg Tie diagram inside-out lr io.svg Tie diagram inside-out rl.svg Tie diagram inside-out lc-end.svg

Named after the town of Grantchester near Cambridge .
In Germany, however, the designation Manhattan node is also common.


Systematic classification of the standard nodes

Classification of the individual movements
Starting position Tie diagram l.svg Tie diagram r.svg Tie diagram l io.svg Tie diagram r io.svg
horizontal movement Tie diagram lr io.svg Tie diagram rl io.svg Tie diagram lr.svg Tie diagram rl.svg
Center movement Diagonal movement Tie diagram lcr.svg Tie diagram rcl.svg Tie diagram lcr io.svg Tie diagram rcl io.svg
Ring movement Tie diagram lcl.svg Tie diagram rcr.svg Tie diagram lcl io.svg Tie diagram rcr io.svg
Conclusion
(= small knot )
- - Tie diagram lr.svg
Tie diagram rc-end.svg
Tie diagram rl.svg
Tie diagram lc-end.svg

While a tie knot is being tied, the narrow end of the tie always remains in the same position and the wide end is moved. These patterns occur:

  • The wide end is to the left of the narrow end
  • The wide end is to the right of the narrow end
  • The wide end is in the loop

The last state can also be interpreted as a transition between the first two. If you only consider the movements that move the wide end from one side of the narrow end to the other side, you will find that exactly three movements are possible in every situation:

  • horizontally over the narrow end (or through it)
  • through the noose to the other side
  • through the loop back to the starting position

The possible movements for all starting positions are listed in the adjacent table. Since the small knot is formed at the end of each standard knot, it is sufficient for a complete description of a knot to list the movements up to the little knot. Half the Windsor knot, for example, results from the sequence of movements

horizontal - diagonal (+ small knot) ,

the Windsor knot

diagonal - horizontal - diagonal (+ small knot)

Nodes with the same number of center and horizontal movements are similar in shape and size. It is therefore advisable to classify the standard nodes according to these quantities. Nodes of the same class only differ in the order of the movements and in the type of center movements (diagonal or ring movement). We define the size of a node as follows:

  • the small knot is size 3
  • a horizontal movement increases the size by 1
  • a center movement increases the size by 2

Trying it out shows that normal ties are too short for knots of size 10 and more. The following diagram classifies the nodes up to size 9, where stands for the number of center movements and for the size. A horizontal line symbolizes a horizontal movement, a diagonal line a central movement. Since these are divided into diagonal and ring movements, the diagonal lines appear in pairs.

Representation of the node classes: 13 classes of aesthetic knots and 3 classes of unaesthetic knots. Class 1 contains the small knot

A simple consideration shows that the size of the knots (marked in blue in the diagram), where the seam points to the neck, is always even, and that, on the other hand, the size of the knots with the seam facing outwards is always odd.

Conversely, the orientation of the seam can be derived from the parity of the size of a node. However, it is also possible to tie an odd-sized knot with the seam facing inwards (and vice versa). To do this, just twist the wide end before binding.

In practice, the nodes marked with an X turn out to be unaesthetic, so that 13 classes of usable nodes remain. A class includes all nodes that consist of the same number of center movements and horizontal movements (without the small node at the end). The number of sequences of these movements is , in addition, there is an independent ring or diagonal movement for each of the central movements . The number of nodes in a class is therefore .

The following table results:

Class
number
Number of nodes
in the class
Names of the nodes horizontal
movements
Center
movements
size
1 1 Small knot 0 0 3
2 1 Four-in-hand 1 0 4th
3 1 Kelvin 2 0 5
4th 1 Victoria 3 0 6th
X each 1 (no nice looking knots) 4, 5, 6 0 7, 8, 9
5 2 Nicky , Pratt 0 1 5
6th 4th Half Windsor03 variants 1 1 6th
7th 6th Sankt Andreas05 variants 2 1 7th
8th 8th Cavendish07 variants 3 1 8th
9 10 Grantchester09 variants 4th 1 9
10 4th Plattsburgh03 variants 0 2 7th
11 12 Windsor + 11 variants 1 2 8th
12 24 Hanoverian + 23 variants 2 2 9
13 8th Balthus07 variants 0 3 9
total 85

Special node

Onassis knot

Tie diagram start.svg Knot-better.png Tie diagram better2.png

Tie diagram lc-end-better.png Tie diagram rcr.svg Tie diagram onassis.png

Onassis knot

The Onassis knot was worn by the Greek shipowner Aristotle Onassis .

The basis of the Onassis knot is the four-in-hand or another small knot, over which the broad end is thrown.

Square knot

Christensen knot

Tie diagram start.svg Knot-better.png Tie diagram rcl io-better.png

Tie diagram lr-better.png Tie diagram rl io.svg Tie diagram rc-end.svg

Square knot

This variant of the Cavendish is only suitable for narrow ties.

In the last step, the wider end is passed under both horizontal strips so that two intersecting strips remain visible on the knot.

Inverted nodes

In default node with an odd size, the seam of the narrow end facing away from the body. If you look at the finished tie from the back, this seam is not visible. This leads to the idea of ​​using the back of the standard knot as a new knot: Every odd-sized standard knot results in a new knot by swapping the two ends when tying the knot from the beginning, i.e. looping the narrow end around the wide end, and the finished tie is rotated 180 °. It is advisable to tie the tie in hand and only then put it on.

Inverted nodes are smaller than the corresponding standard nodes because the narrow end contributes less material to the volume build-up. The required length of the tie is roughly the same.

A selection of inverted nodes:

Atlantic knot

Atlantic knot

This is an inverted Pratt node .

Diagonal right knot

Diagonal right knot

This is an inverted Kelvin knot .

The name comes from the diagonal small loop on the right side - as seen from the wearer.

Merovingian knot

Merovingian knot

This knot was named after the Merovingian Matrix figure and is originally also known as Ediety .

The knot is an inverted knot with the sequence of movements

Ring - horizontal - ring - horizontal - ring (+ small knot)

and is therefore size 11. An extra-long tie is essential for the Merovingian knot.

gallery

See also

literature

Individual evidence

  1. Thomas Fink, Yong Mao: Tie knots, random walks and topology (PDF; 197 kB). in: Physica A 276. Amsterdam 2000, 109-121. ISSN  0378-4371
  2. The Kent knot. Spotn.de, October 19, 2007, archived from the original on September 11, 2010 ; accessed on August 24, 2014 .

Web links

Commons : Tie Knots  - collection of images, videos, and audio files
More knots
  • Alex Krasny: Eldredge. In: YouTube . Retrieved April 6, 2013 .
  • Alex Krasny: Trinity. In: YouTube. Retrieved April 6, 2013 .
  • Alex Krasny: Cape. In: YouTube. Retrieved April 6, 2013 .
  • Patrick Novotny: Novotny. In: YouTube. Retrieved April 6, 2013 .
  • Eliot Truelove: Truelove. In: YouTube. Retrieved April 6, 2013 .
  • Eliot Truelove: Ellie. In: YouTube. Retrieved April 6, 2013 .
  • Sidewinder. In: YouTube. Retrieved April 6, 2013 .
  • Fancy braided. In: YouTube. Retrieved April 6, 2013 .
  • The Left Ostridge. In: YouTube. Retrieved April 6, 2013 .