10 83

From Knot Atlas

Jump to: navigation, search


10_82

10_84

Contents

Image:10 83.gif
(KnotPlot image)

See the full Rolfsen Knot Table.

Visit 10 83's page at the Knot Server (KnotPlot driven, includes 3D interactive images!)

Visit 10_83's page at Knotilus!

Visit 10 83's page at the original Knot Atlas!

[edit 10 83 Quick Notes]
[edit 10 83 Further Notes and Views]

Warning. There is a mixup in the original (1976) Rolfsen table between the pictures and the invariants of the knots 10_83 and 10_86. That mixup lead to a similar mixup here. In the new (2003) edition of Rolfsen's book the mixup was corrected and on August 17, 2004, it was corrected here (actually in Dror's original Knot Atlas) consistently with Rolfsen's correction. In the years between 1976 and 2003 other authors fixed the problem in different ways and our enumeration here may be different than theirs. Dror would like to thank Z-X. Tao for telling him about the (now corrected) mixup here and A. Stoimenow for telling him about the mixup in Rolfsen's original table.

[edit] Knot presentations

Planar diagram presentation X1627 X5,16,6,17 X13,1,14,20 X7,15,8,14 X3948 X9,5,10,4 X19,11,20,10 X11,19,12,18 X17,13,18,12 X15,2,16,3
Gauss code -1, 10, -5, 6, -2, 1, -4, 5, -6, 7, -8, 9, -3, 4, -10, 2, -9, 8, -7, 3
Dowker-Thistlethwaite code 6 8 16 14 4 18 20 2 12 10
Conway Notation [.31.20]


Minimum Braid Representative A Morse Link Presentation An Arc Presentation
Image:BraidPart1.gifImage:BraidPart1.gifImage:BraidPart0.gifImage:BraidPart3.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gif
Image:BraidPart2.gifImage:BraidPart2.gifImage:BraidPart1.gifImage:BraidPart4.gifImage:BraidPart1.gifImage:BraidPart0.gifImage:BraidPart1.gifImage:BraidPart1.gifImage:BraidPart0.gifImage:BraidPart1.gifImage:BraidPart0.gif
Image:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart2.gifImage:BraidPart0.gifImage:BraidPart2.gifImage:BraidPart3.gifImage:BraidPart2.gifImage:BraidPart2.gifImage:BraidPart3.gifImage:BraidPart2.gifImage:BraidPart3.gif
Image:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart4.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart4.gifImage:BraidPart0.gifImage:BraidPart4.gif

Length is 11, width is 4,

Braid index is 4

Image:10 83_ML.gif Image:10 83_AP.gif
[{10, 4}, {3, 8}, {5, 9}, {4, 7}, {2, 5}, {8, 6}, {7, 11}, {6, 10}, {12, 3}, {11, 13}, {1, 12}, {13, 2}, {9, 1}]

[edit Notes on presentations of 10 83]


Computer Talk
The above data is available with the Mathematica package KnotTheory`. Your input (in red) is realistic; all else should have the same content as in a real mathematica session, but with different formatting.

(The path below may be different on your system, and possibly also the KnotTheory` date)

In[1]:= AppendTo[$Path, "C:/drorbn/projects/KAtlas/"]; << KnotTheory`
Loading KnotTheory` version of May 31, 2006, 14:15:20.091.

Read more at http://katlas.org/wiki/KnotTheory.

In[3]:= K = Knot["10 83"];
In[4]:= PD[K]
KnotTheory::loading: Loading precomputed data in PD4Knots`.
Out[4]= X1627 X5,16,6,17 X13,1,14,20 X7,15,8,14 X3948 X9,5,10,4 X19,11,20,10 X11,19,12,18 X17,13,18,12 X15,2,16,3
In[5]:= GaussCode[K]
Out[5]= -1, 10, -5, 6, -2, 1, -4, 5, -6, 7, -8, 9, -3, 4, -10, 2, -9, 8, -7, 3
In[6]:= DTCode[K]
Out[6]= 6 8 16 14 4 18 20 2 12 10

(The path below may be different on your system)

In[7]:= AppendTo[$Path, "C:/bin/LinKnot/"];
In[8]:= ConwayNotation[K]
Out[8]= [.31.20]
In[9]:= br = BR[K]
KnotTheory::credits: The minimum braids representing the knots with up to 10 crossings were provided by Thomas Gittings. See arXiv:math.GT/0401051.
Out[9]= BR(4,{1,1,2,−1,2,−3,2,2,−3,2,−3})
In[10]:= {First[br], Crossings[br], BraidIndex[K]}
KnotTheory::credits: The braid index data known to KnotTheory` is taken from Charles Livingston's http://www.indiana.edu/~knotinfo/.
KnotTheory::loading: Loading precomputed data in IndianaData`.
Out[10]= { 4, 11, 4 }
In[11]:= Show[BraidPlot[br]]
Image:BraidPart1.gifImage:BraidPart1.gifImage:BraidPart0.gifImage:BraidPart3.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gif
Image:BraidPart2.gifImage:BraidPart2.gifImage:BraidPart1.gifImage:BraidPart4.gifImage:BraidPart1.gifImage:BraidPart0.gifImage:BraidPart1.gifImage:BraidPart1.gifImage:BraidPart0.gifImage:BraidPart1.gifImage:BraidPart0.gif
Image:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart2.gifImage:BraidPart0.gifImage:BraidPart2.gifImage:BraidPart3.gifImage:BraidPart2.gifImage:BraidPart2.gifImage:BraidPart3.gifImage:BraidPart2.gifImage:BraidPart3.gif
Image:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart4.gifImage:BraidPart0.gifImage:BraidPart0.gifImage:BraidPart4.gifImage:BraidPart0.gifImage:BraidPart4.gif
Out[11]= -Graphics-
In[12]:= Show[DrawMorseLink[K]]
KnotTheory::credits: "MorseLink was added to KnotTheory` by Siddarth Sankaran at the University of Toronto in the summer of 2005."
KnotTheory::credits: "DrawMorseLink was written by Siddarth Sankaran at the University of Toronto in the summer of 2005."
Image:10 83_ML.gif
Out[12]= -Graphics-
In[13]:= ap = ArcPresentation[K]
Out[13]= ArcPresentation[{10, 4}, {3, 8}, {5, 9}, {4, 7}, {2, 5}, {8, 6}, {7, 11}, {6, 10}, {12, 3}, {11, 13}, {1, 12}, {13, 2}, {9, 1}]
In[14]:= Draw[ap]
Image:10 83_AP.gif
Out[14]= -Graphics-

[edit] Three dimensional invariants

Symmetry type Chiral
Unknotting number 2
3-genus 3
Bridge index 3
Super bridge index Missing
Nakanishi index 1
Maximal Thurston-Bennequin number [-2][-10]
Hyperbolic Volume 14.2581
A-Polynomial See Data:10 83/A-polynomial

[edit Notes for 10 83's three dimensional invariants]

[edit] Four dimensional invariants

Smooth 4 genus 1
Topological 4 genus 1
Concordance genus 3
Rasmussen s-Invariant 2

[edit Notes for 10 83's four dimensional invariants]

[edit] Polynomial invariants

Alexander polynomial 2t3−9t2 + 19t−23 + 19t−1−9t−2 + 2t−3
Conway polynomial 2z6 + 3z4 + z2 + 1
2nd Alexander ideal (db, data sources) {1}
Determinant and Signature { 83, 2 }
Jones polynomial −q8 + 3q7−6q6 + 10q5−13q4 + 14q3−13q2 + 11q−7 + 4q−1−q−2
HOMFLY-PT polynomial (db, data sources) z6a−2 + z6a−4 + 2z4a−2 + 3z4a−4−z4a−6−z4 + 4z2a−4−2z2a−6−z2−a−2 + 2a−4−a−6 + 1
Kauffman polynomial (db, data sources) 2z9a−3 + 2z9a−5 + 5z8a−2 + 10z8a−4 + 5z8a−6 + 6z7a−1 + 6z7a−3 + 5z7a−5 + 5z7a−7−5z6a−2−22z6a−4−10z6a−6 + 3z6a−8 + 4z6 + az5−10z5a−1−17z5a−3−18z5a−5−11z5a−7 + z5a−9−z4a−2 + 22z4a−4 + 10z4a−6−6z4a−8−7z4−az3 + 3z3a−1 + 13z3a−3 + 20z3a−5 + 9z3a−7−2z3a−9−2z2a−2−10z2a−4−4z2a−6 + 2z2a−8 + 2z2−za−1−4za−3−6za−5−3za−7 + a−2 + 2a−4 + a−6 + 1
The A2 invariant −q6 + 2q4 + 3q−2−3q−4 + 2q−6−q−8 + 2q−12−2q−14 + 3q−16−q−18−q−20 + q−22−q−24
The G2 invariant q32−3q30 + 7q28−13q26 + 14q24−11q22−2q20 + 25q18−48q16 + 71q14−74q12 + 48q10 + 3q8−73q6 + 144q4−179q2 + 164−87q−2−33q−4 + 156q−6−232q−8 + 235q−10−149q−12 + 11q−14 + 123q−16−200q−18 + 178q−20−72q−22−68q−24 + 173q−26−193q−28 + 109q−30 + 43q−32−201q−34 + 297q−36−286q−38 + 167q−40 + 19q−42−207q−44 + 329q−46−341q−48 + 249q−50−77q−52−102q−54 + 230q−56−260q−58 + 190q−60−50q−62−91q−64 + 173q−66−161q−68 + 62q−70 + 79q−72−189q−74 + 222q−76−162q−78 + 27q−80 + 114q−82−217q−84 + 239q−86−178q−88 + 72q−90 + 38q−92−119q−94 + 146q−96−127q−98 + 79q−100−24q−102−20q−104 + 42q−106−47q−108 + 39q−110−24q−112 + 12q−114 + q−116−7q−118 + 7q−120−7q−122 + 4q−124−2q−126 + q−128
Further Quantum Invariants
Further quantum knot invariants for 10_83.

A1 Invariants.

Weight Invariant
1 −q5 + 3q3−3q + 4q−1−2q−3 + q−5 + q−7−3q−9 + 4q−11−3q−13 + 2q−15−q−17
2 q16−3q14−q12 + 10q10−9q8−10q6 + 26q4−7q2−27 + 32q−2 + 6q−4−34q−6 + 18q−8 + 17q−10−21q−12−5q−14 + 17q−16 + 4q−18−26q−20 + 9q−22 + 28q−24−32q−26−5q−28 + 34q−30−19q−32−13q−34 + 21q−36−4q−38−9q−40 + 6q−42−2q−46 + q−48
3 −q33 + 3q31 + q29−6q27−5q25 + 10q23 + 16q21−22q19−30q17 + 27q15 + 62q13−25q11−105q9 + 5q7 + 152q5 + 41q3−179q−110q−1 + 185q−3 + 177q−5−155q−7−226q−9 + 99q−11 + 250q−13−35q−15−237q−17−28q−19 + 201q−21 + 79q−23−146q−25−125q−27 + 85q−29 + 160q−31−19q−33−188q−35−46q−37 + 201q−39 + 116q−41−196q−43−179q−45 + 168q−47 + 218q−49−111q−51−237q−53 + 44q−55 + 222q−57 + 16q−59−172q−61−59q−63 + 115q−65 + 70q−67−60q−69−59q−71 + 22q−73 + 38q−75−5q−77−20q−79 + q−81 + 8q−83−3q−87 + 2q−91−q−93
4 q56−3q54−q52 + 6q50 + q48 + 4q46−16q44−8q42 + 23q40 + 8q38 + 14q36−63q34−43q32 + 79q30 + 86q28 + 73q26−197q24−246q22 + 66q20 + 324q18 + 444q16−213q14−724q12−426q10 + 374q8 + 1197q6 + 431q4−922q2−1396−390q−2 + 1579q−4 + 1586q−6−179q−8−1908q−10−1628q−12 + 920q−14 + 2177q−16 + 1032q−18−1358q−20−2226q−22−220q−24 + 1707q−26 + 1667q−28−327q−30−1830q−32−964q−34 + 761q−36 + 1550q−38 + 472q−40−1037q−42−1246q−44−76q−46 + 1197q−48 + 1044q−50−277q−52−1453q−54−852q−56 + 834q−58 + 1619q−60 + 570q−62−1532q−64−1695q−66 + 150q−68 + 1939q−70 + 1592q−72−1005q−74−2178q−76−915q−78 + 1419q−80 + 2198q−82 + 141q−84−1666q−86−1634q−88 + 203q−90 + 1738q−92 + 973q−94−464q−96−1314q−98−641q−100 + 641q−102 + 828q−104 + 319q−106−475q−108−575q−110−32q−112 + 267q−114 + 318q−116−10q−118−199q−120−95q−122 + 104q−126 + 35q−128−31q−130−18q−132−17q−134 + 18q−136 + 7q−138−6q−140 + q−142−3q−144 + 3q−146−2q−150 + q−152
5 −q85 + 3q83 + q81−6q79−q77 + 2q73 + 8q71 + 7q69−13q67−13q65 + 11q63 + 22q61 + 12q59−27q57−69q55−72q53 + 54q51 + 221q49 + 210q47−29q45−391q43−584q41−262q39 + 564q37 + 1216q35 + 941q33−353q31−1913q29−2287q27−603q25 + 2312q23 + 4072q21 + 2646q19−1668q17−5785q15−5789q13−569q11 + 6511q9 + 9429q7 + 4551q5−5341q3−12417q−9807q−1 + 1848q−3 + 13649q−5 + 15086q−7 + 3554q−9−12267q−11−18976q−13−9829q−15 + 8410q−17 + 20440q−19 + 15417q−21−2946q−23−19085q−25−19083q−27−2865q−29 + 15506q−31 + 20234q−33 + 7669q−35−10717q−37−18969q−39−10775q−41 + 5823q−43 + 16153q−45 + 12024q−47−1731q−49−12649q−51−11901q−53−1280q−55 + 9345q−57 + 11120q−59 + 3352q−61−6687q−63−10396q−65−4949q−67 + 4705q−69 + 10165q−71 + 6662q−73−3041q−75−10577q−77−8895q−79 + 1213q−81 + 11221q−83 + 11801q−85 + 1384q−87−11546q−89−15119q−91−4966q−93 + 10785q−95 + 18087q−97 + 9477q−99−8335q−101−19843q−103−14283q−105 + 4164q−107 + 19482q−109 + 18241q−111 + 1365q−113−16608q−115−20358q−117−7051q−119 + 11571q−121 + 19788q−123 + 11543q−125−5318q−127−16576q−129−13816q−131−603q−133 + 11564q−135 + 13373q−137 + 4890q−139−6004q−141−10790q−143−6880q−145 + 1372q−147 + 7111q−149 + 6652q−151 + 1575q−153−3548q−155−5062q−157−2709q−159 + 972q−161 + 3075q−163 + 2516q−165 + 388q−167−1412q−169−1743q−171−798q−173 + 417q−175 + 955q−177 + 659q−179 + 22q−181−402q−183−400q−185−129q−187 + 137q−189 + 193q−191 + 86q−193−29q−195−68q−197−47q−199−2q−201 + 30q−203 + 16q−205−5q−207−4q−209−2q−211−3q−213 + 2q−215 + 3q−217−3q−219 + 2q−223−q−225

A2 Invariants.

Weight Invariant
1,0 −q6 + 2q4 + 3q−2−3q−4 + 2q−6−q−8 + 2q−12−2q−14 + 3q−16−q−18−q−20 + q−22−q−24
1,1 q20−6q18 + 20q16−50q14 + 99q12−178q10 + 294q8−442q6 + 613q4−794q2 + 964−1062q−2 + 1072q−4−960q−6 + 708q−8−308q−10−188q−12 + 728q−14−1258q−16 + 1712q−18−2029q−20 + 2164q−22−2116q−24 + 1886q−26−1497q−28 + 1006q−30−468q−32−54q−34 + 505q−36−832q−38 + 1014q−40−1070q−42 + 1012q−44−868q−46 + 690q−48−518q−50 + 365q−52−236q−54 + 144q−56−88q−58 + 48q−60−22q−62 + 10q−64−4q−66 + q−68
2,0 q18−2q16−3q14 + 5q12 + 4q10−7q8−7q6 + 10q4 + 11q2−12−7q−2 + 17q−4 + 4q−6−14q−8 + q−10 + 12q−12−3q−14−6q−16 + 6q−18 + 2q−20−12q−22 + 5q−24 + 8q−26−14q−28−4q−30 + 15q−32 + 4q−34−14q−36 + 14q−40 + q−42−12q−44 + 7q−48−2q−50−3q−52−q−54 + 2q−56−q−60 + q−62

A3 Invariants.

Weight Invariant
0,1,0 q14−3q12 + q10 + 6q8−11q6 + 5q4 + 15q2−20 + 7q−2 + 21q−4−28q−6 + 2q−8 + 20q−10−18q−12−3q−14 + 13q−16 + 2q−18−5q−20−2q−22 + 17q−24−5q−26−20q−28 + 23q−30−3q−32−26q−34 + 22q−36 + q−38−17q−40 + 13q−42 + 2q−44−7q−46 + 4q−48−2q−52 + q−54
1,0,0 −q7 + 2q5−q3 + 3q−q−1 + 3q−3−3q−5 + q−7−q−9 + q−13 + 3q−17−2q−19 + 3q−21−2q−23 + q−25−2q−27 + q−29−q−31

A4 Invariants.

Weight Invariant
0,1,0,0 q16−2q14−q12 + 4q10−2q8−4q6 + 7q4 + 8q2−7−4q−2 + 15q−4 + 5q−6−22q−8−q−10 + 20q−12−12q−14−20q−16 + 17q−18 + 12q−20−15q−22 + 3q−24 + 23q−26−2q−28−14q−30 + 18q−32 + 8q−34−26q−36−2q−38 + 18q−40−13q−42−19q−44 + 13q−46 + 12q−48−11q−50−6q−52 + 12q−54 + 3q−56−9q−58 + q−60 + 4q−62−2q−64−q−66 + q−68
1,0,0,0 −q8 + 2q6−q4 + 2q2 + 2−q−2 + 3q−4−3q−6 + q−8−2q−10 + q−16 + q−18 + q−20 + 3q−22−2q−24 + 3q−26−2q−28−2q−34 + q−36−q−38

B2 Invariants.

Weight Invariant
0,1 −q14 + 3q12−7q10 + 12q8−17q6 + 25q4−29q2 + 32−31q−2 + 27q−4−16q−6 + 4q−8 + 12q−10−28q−12 + 43q−14−55q−16 + 60q−18−61q−20 + 56q−22−45q−24 + 31q−26−14q−28−q−30 + 15q−32−24q−34 + 30q−36−31q−38 + 29q−40−25q−42 + 18q−44−13q−46 + 8q−48−4q−50 + 2q−52−q−54
1,0 q24−3q20−3q18 + 4q16 + 9q14−q12−14q10−9q8 + 16q6 + 22q4−6q2−29−9q−2 + 29q−4 + 26q−6−18q−8−33q−10 + q−12 + 31q−14 + 10q−16−24q−18−16q−20 + 17q−22 + 19q−24−11q−26−19q−28 + 7q−30 + 22q−32−q−34−22q−36−3q−38 + 24q−40 + 11q−42−24q−44−21q−46 + 18q−48 + 30q−50−7q−52−35q−54−11q−56 + 28q−58 + 23q−60−13q−62−26q−64−2q−66 + 19q−68 + 10q−70−7q−72−10q−74 + 6q−78 + 2q−80−2q−82−2q−84 + q−88

D4 Invariants.

Weight Invariant
1,0,0,0 q18−3q16 + 4q14−6q12 + 10q10−14q8 + 17q6−18q4 + 26q2−24 + 25q−2−22q−4 + 23q−6−17q−8 + 4q−10−2q−12−7q−14 + 17q−16−30q−18 + 33q−20−37q−22 + 50q−24−45q−26 + 47q−28−42q−30 + 45q−32−30q−34 + 23q−36−20q−38 + 6q−40 + 3q−42−12q−44 + 11q−46−23q−48 + 25q−50−23q−52 + 23q−54−23q−56 + 21q−58−14q−60 + 12q−62−10q−64 + 7q−66−4q−68 + 2q−70−2q−72 + q−74

G2 Invariants.

Weight Invariant
1,0 q32−3q30 + 7q28−13q26 + 14q24−11q22−2q20 + 25q18−48q16 + 71q14−74q12 + 48q10 + 3q8−73q6 + 144q4−179q2 + 164−87q−2−33q−4 + 156q−6−232q−8 + 235q−10−149q−12 + 11q−14 + 123q−16−200q−18 + 178q−20−72q−22−68q−24 + 173q−26−193q−28 + 109q−30 + 43q−32−201q−34 + 297q−36−286q−38 + 167q−40 + 19q−42−207q−44 + 329q−46−341q−48 + 249q−50−77q−52−102q−54 + 230q−56−260q−58 + 190q−60−50q−62−91q−64 + 173q−66−161q−68 + 62q−70 + 79q−72−189q−74 + 222q−76−162q−78 + 27q−80 + 114q−82−217q−84 + 239q−86−178q−88 + 72q−90 + 38q−92−119q−94 + 146q−96−127q−98 + 79q−100−24q−102−20q−104 + 42q−106−47q−108 + 39q−110−24q−112 + 12q−114 + q−116−7q−118 + 7q−120−7q−122 + 4q−124−2q−126 + q−128

.

Computer Talk
The above data is available with the Mathematica package KnotTheory`, as shown in the (simulated) Mathematica session below. Your input (in red) is realistic; all else should have the same content as in a real mathematica session, but with different formatting. This Mathematica session is also available (albeit only for the knot 5_2) as the notebook PolynomialInvariantsSession.nb.

(The path below may be different on your system, and possibly also the KnotTheory` date)

In[1]:= AppendTo[$Path, "C:/drorbn/projects/KAtlas/"]; << KnotTheory`
Loading KnotTheory` version of August 31, 2006, 11:25:27.5625.

Read more at http://katlas.math.toronto.edu/wiki/KnotTheory.

In[3]:= K = Knot["10 83"];
In[4]:= Alexander[K][t]
KnotTheory::loading: Loading precomputed data in PD4Knots`.
Out[4]= 2t3−9t2 + 19t−23 + 19t−1−9t−2 + 2t−3
In[5]:= Conway[K][z]
Out[5]= 2z6 + 3z4 + z2 + 1
In[6]:= Alexander[K, 2][t]
KnotTheory::credits: The program Alexander[K, r] to compute Alexander ideals was written by Jana Archibald at the University of Toronto in the summer of 2005.
Out[6]= {1}
In[7]:= {KnotDet[K], KnotSignature[K]}
Out[7]= { 83, 2 }
In[8]:= Jones[K][q]
KnotTheory::loading: Loading precomputed data in Jones4Knots`.
Out[8]= −q8 + 3q7−6q6 + 10q5−13q4 + 14q3−13q2 + 11q−7 + 4q−1−q−2
In[9]:= HOMFLYPT[K][a, z]
KnotTheory::credits: The HOMFLYPT program was written by Scott Morrison.
Out[9]= z6a−2 + z6a−4 + 2z4a−2 + 3z4a−4−z4a−6−z4 + 4z2a−4−2z2a−6−z2−a−2 + 2a−4−a−6 + 1
In[10]:= Kauffman[K][a, z]
KnotTheory::loading: Loading precomputed data in Kauffman4Knots`.
Out[10]= 2z9a−3 + 2z9a−5 + 5z8a−2 + 10z8a−4 + 5z8a−6 + 6z7a−1 + 6z7a−3 + 5z7a−5 + 5z7a−7−5z6a−2−22z6a−4−10z6a−6 + 3z6a−8 + 4z6 + az5−10z5a−1−17z5a−3−18z5a−5−11z5a−7 + z5a−9−z4a−2 + 22z4a−4 + 10z4a−6−6z4a−8−7z4−az3 + 3z3a−1 + 13z3a−3 + 20z3a−5 + 9z3a−7−2z3a−9−2z2a−2−10z2a−4−4z2a−6 + 2z2a−8 + 2z2−za−1−4za−3−6za−5−3za−7 + a−2 + 2a−4 + a−6 + 1

[edit] "Similar" Knots (within the Atlas)

Same Alexander/Conway Polynomial: {K11a307, K11a323,}

Same Jones Polynomial (up to mirroring, q\leftrightarrow q^{-1}): {10_73,}

Computer Talk
The above data is available with the Mathematica package KnotTheory`. Your input (in red) is realistic; all else should have the same content as in a real mathematica session, but with different formatting.

(The path below may be different on your system, and possibly also the KnotTheory` date)

In[1]:= AppendTo[$Path, "C:/drorbn/projects/KAtlas/"]; << KnotTheory`
Loading KnotTheory` version of May 31, 2006, 14:15:20.091.

Read more at http://katlas.math.toronto.edu/wiki/KnotTheory.

In[3]:= K = Knot["10 83"];
In[4]:= {A = Alexander[K][t], J = Jones[K][q]}
KnotTheory::loading: Loading precomputed data in PD4Knots`.
KnotTheory::loading: Loading precomputed data in Jones4Knots`.
Out[4]= { 2t3−9t2 + 19t−23 + 19t−1−9t−2 + 2t−3, −q8 + 3q7−6q6 + 10q5−13q4 + 14q3−13q2 + 11q−7 + 4q−1−q−2 }
In[5]:= DeleteCases[Select[AllKnots[], (A === Alexander[#][t]) &], K]
KnotTheory::loading: Loading precomputed data in DTCode4KnotsTo11`.
KnotTheory::credits: The GaussCode to PD conversion was written by Siddarth Sankaran at the University of Toronto in the summer of 2005.
Out[5]= {K11a307, K11a323,}
In[6]:= DeleteCases[ Select[ AllKnots[], (J === Jones[#][q] || (J /. q -> 1/q) === Jones[#][q]) & ], K ]
KnotTheory::loading: Loading precomputed data in Jones4Knots11`.
Out[6]= {10_73,}

[edit] Vassiliev invariants

V2 and V3: (1, 2)

[edit] Khovanov Homology

The coefficients of the monomials trqj are shown, along with their alternating sums χ (fixed j, alternation over r). The squares with yellow highlighting are those on the "critical diagonals", where j−2r = s + 1 or j−2r = s−1, where s = 2 is the signature of 10 83. Nonzero entries off the critical diagonals (if any exist) are highlighted in red.   
\ r
  \  
j \
 -3-2-101234567χ
17          1-1
15         2 2
13        41 -3
11       62  4
9      74   -3
7     76    1
5    67     1
3   57      -2
1  37       4
-1 14        -3
-3 3         3
-51          -1
Integral Khovanov Homology

(db, data source)

  
\dim{\mathcal G}_{2r+i}\operatorname{KH}^r_{\mathbb Z} i = 1 i = 3
r = −3 {\mathbb Z}
r = −2 {\mathbb Z}^{3}\oplus{\mathbb Z}_2 {\mathbb Z}
r = −1 {\mathbb Z}^{4}\oplus{\mathbb Z}_2^{3} {\mathbb Z}^{3}
r = 0 {\mathbb Z}^{7}\oplus{\mathbb Z}_2^{4} {\mathbb Z}^{5}
r = 1 {\mathbb Z}^{7}\oplus{\mathbb Z}_2^{6} {\mathbb Z}^{6}
r = 2 {\mathbb Z}^{7}\oplus{\mathbb Z}_2^{7} {\mathbb Z}^{7}
r = 3 {\mathbb Z}^{6}\oplus{\mathbb Z}_2^{7} {\mathbb Z}^{7}
r = 4 {\mathbb Z}^{4}\oplus{\mathbb Z}_2^{6} {\mathbb Z}^{6}
r = 5 {\mathbb Z}^{2}\oplus{\mathbb Z}_2^{4} {\mathbb Z}^{4}
r = 6 {\mathbb Z}\oplus{\mathbb Z}_2^{2} {\mathbb Z}^{2}
r = 7 {\mathbb Z}_2 {\mathbb Z}

[edit] The Coloured Jones Polynomials

The Coloured Jones Polynomials (in the n + 1-dimensional representation of sl(2))

 n  Jn
2 q23−3q22 + 2q21 + 7q20−18q19 + 7q18 + 32q17−52q16 + q15 + 85q14−91q13−26q12 + 145q11−110q10−61q9 + 175q8−97q7−83q6 + 159q5−59q4−82q3 + 107q2−19q−56 + 48q−1 + q−2−23q−3 + 12q−4 + 2q−5−4q−6 + q−7
3 −q45 + 3q44−2q43−3q42 + 2q41 + 11q40−9q39−24q38 + 17q37 + 54q36−25q35−105q34 + 16q33 + 184q32 + 20q31−279q30−97q29 + 372q28 + 226q27−457q26−378q25 + 498q24 + 555q23−507q22−725q21 + 481q20 + 867q19−422q18−972q17 + 339q16 + 1036q15−243q14−1047q13 + 129q12 + 1015q11−18q10−925q9−100q8 + 806q7 + 184q6−640q5−251q4 + 481q3 + 255q2−308q−243 + 186q−1 + 186q−2−88q−3−132q−4 + 39q−5 + 76q−6−8q−7−45q−8 + 4q−9 + 19q−10−7q−12−2q−13 + 4q−14−q−15
4 q74−3q73 + 2q72 + 3q71−6q70 + 5q69−10q68 + 15q67 + 14q66−41q65 + 4q64−23q63 + 81q62 + 83q61−145q60−91q59−127q58 + 270q57 + 411q56−196q55−390q54−670q53 + 370q52 + 1205q51 + 313q50−577q49−1952q48−303q47 + 2055q46 + 1750q45 + 188q44−3487q43−2140q42 + 2023q41 + 3557q40 + 2245q39−4266q38−4474q37 + 760q36 + 4730q35 + 4842q34−3919q33−6263q32−1085q31 + 4893q30 + 6944q29−2870q28−7048q27−2771q26 + 4292q25 + 8120q24−1549q23−6895q22−4044q21 + 3122q20 + 8329q19−40q18−5817q17−4833q16 + 1397q15 + 7463q14 + 1463q13−3823q12−4793q11−530q10 + 5457q9 + 2331q8−1433q7−3648q6−1787q5 + 2909q4 + 2051q3 + 296q2−1883q−1794 + 940q−1 + 1045q−2 + 770q−3−530q−4−1028q−5 + 117q−6 + 245q−7 + 472q−8−19q−9−371q−10−3q−11−13q−12 + 160q−13 + 30q−14−101q−15 + 10q−16−20q−17 + 38q−18 + 10q−19−24q−20 + 4q−21−5q−22 + 7q−23 + 2q−24−4q−25 + q−26

[edit] Computer Talk

Much of the above data can be recomputed by Mathematica using the package KnotTheory`. See A Sample KnotTheory` Session, or any of the Computer Talk sections above.

[edit] Modifying This Page

Read me first: Modifying Knot Pages

See/edit the Rolfsen Knot Page master template (intermediate).

See/edit the Rolfsen_Splice_Base (expert).

Back to the top.

10_82

10_84

Retrieved from "http://katlas.org/wiki/10_83"
Personal tools