appendix i. 0 l actions: product rule +l == +5.978-1-4757-2315-1/1.pdf · appendix i. 0 l actions:...

20
Appendix i. 0 L Actions: Product Rule ea e a +l == e a +5. Given the octonion multiplication, eaea+l = ea+s, the resulting multiplication table is 1 el e2 e3 e4 es e6 e7 el -1 e6 e4 -e3 e7 -e2 -e5 e2 -e6 -1 e7 es -e4 el -e3 e3 -e4 -e7 -1 el e6 -es e2 (LO) e4 e3 -es -eI -1 e2 e7 -e6 es -e7 e4 -e6 -e2 -1 e3 el e6 e2 -eI e5 -e7 -e3 -1 e4 e7 es e3 -e2 e6 -eI -e4 -1 o is the object space of the 64-dimensional OL. In the tables listed below are the actions of the basis elements of 0 L on the basis of O. As an example of how to use these tables, consider the bold-faced ele- ments in table i.O. These indicate that where the sign is drawn from the slot in the relevant row and column. As another example, from table i.1 we see that eL34[eS] = -e7, where es is on the left side, determining the row, e7 is on the right at the end of the same row, and eL34 is on the top, determining the column. A 217

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Page 1: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

Appendix i. 0 L Actions: Product Rule eaea+l == ea+5.

Given the octonion multiplication,

eaea+l = ea+s,

the resulting multiplication table is

1 el e2 e3 e4 es e6 e7 el -1 e6 e4 -e3 e7 -e2 -e5 e2 -e6 -1 e7 es -e4 el -e3

e3 -e4 -e7 -1 el e6 -es e2 (LO) e4 e3 -es -eI -1 e2 e7 -e6 es -e7 e4 -e6 -e2 -1 e3 el e6 e2 -eI e5 -e7 -e3 -1 e4 e7 es e3 -e2 e6 -eI -e4 -1

o is the object space of the 64-dimensional OL. In the tables listed below are the actions of the basis elements of 0 L on the basis of O.

As an example of how to use these tables, consider the bold-faced ele­ments in table i.O. These indicate that

where the sign is drawn from the slot in the relevant row and column. As another example, from table i.1 we see that

eL34[eS] = -e7,

where es is on the left side, determining the row, e7 is on the right at the end of the same row, and eL34 is on the top, determining the column. A

217

Page 2: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

218 APPENDIX 1.

minus sign is in the appropriate row and column, which is the sign of the action. The La table is associated with ea , where eo = 1. Note that the adjoint elements along the top of table LO are the diagonal elements of OL, denoted I a in 2.46. These were used to resolve the identity of 0L in section 2.4.

1 eL476 eLS17 eL621 eL732 eLl43 eL2S4 eL36S

1 + + + + + + + + 1 el + + + + el e2 + + + + e2

ea + + + + ea (i.1) e4 + + + + e4

es + + + + es e6 + + + + e6

e7 + + + + e7

eLI eL26 eL34 eLS7 eLS46 eL23S eL427 eL367

1 + + + + + + + + el el + + + + 1 e2 + + + + e6

e3 + + + + e4 (i.2) e4 + + + + e3

es + + + + e7

e6 + + + + (:2

e7 + + + + es

eL2 eL37 eL4S eL61 eL657 eL346 eL531 eL471

1 + + + + + + + + e2

el + + + + e6

e2 + + + + 1 e3 + + + + e7 (i.3) e4 + + + + es es + + + + e4

e6 + + + + el e7 + + + + e3

Page 3: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

219

eL3 eL41 eL56 eL72 eL761 eL457 eL642 eL512

1 + + + + + + + + e3

e1 + + + + e4

e2 + + + + e7

e3 + + + + 1 (iA) e4 + + + + e1

e5 + + + + e6

e6 + + + + e5

e7 + + + + e2

eL4 eL52 eL67 eL13 eL172 eL561 eL753 eL623

1 + + + + + + + + e4

e1 + + + + e3

e2 + + + + e5

e3 + + + + e1 (i.5) e4 + + + + 1 e5 + + + + e2

e6 + + + + e7

e7 + + + + e6

eL5 eL63 eL71 eL24 eL213 eL672 eL164 eL734

1 + + + + + + + + e5

e1 + + + + e7

e2 + + + + e4

e3 + + + + e6 (i.6) e4 + + + + e2

e5 + + + + 1 e6 + + + + e3

e7 + + + + e1

Page 4: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

220 APPENDIX 1.

eL6 eL74 eL12 eL35 eL324 eL713 eL275 eL145

1 + + + + + + + + e6

el + + + + e2

e2 + + + + el

e3 + + + + e5 (i.7) e4 + + + + e7

e5 + + + + e3

e6 + + + + 1 e7 + + + + e4

eL7 eL15 eL23 eL46 eL435 eL124 eL316 eL256

1 + + + + + + + + e7

el + + + + e5

e2 + + + + e3

e3 + + + + e2 (i.8) e4 + + + + e6

e5 + + + + el

e6 + + + + e4

e7 + + + + 1

Page 5: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

Appendix ii. 0 R Actions: Product Rule eaea+l = ea+5.

For the sake of completeness, the actions of the basis of 0R on 0 are also given.

1 eR476 eR517 eR621 eR732 eR143 eR254 eR365

1 + + + + + + + + 1 el + + + + el e2 + + + + e2

e3 + + + + e3 (ii.O) e4 + + + + e4

e5 + + + + e5

e6 + + + + e6

e7 + + + + e7

eR! eR26 eR34 eR57 eR564 eR253 eR472 eR376

1 + + + + + + + + el el + + + + 1 e2 + + + + e6

e3 + + + + e4 (ii.1 ) e4 + + + + e3

e5 + + + + e7

e6 + + + + e2

e7 + + + + es

Page 6: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

222 APPENDIX 11.

eR2 eR37 eR4S eR61 eR675 eR364 eRS13 eR417

1 + + + + + + + + e2

e1 + + + + e6 e2 + + + + 1 e3 + + + + e7 (ii.2) e4 + + + + es es + + + + e4

e6 + + + + el e7 + + + + e3

eR3 eR41 eR56 eR72 eR716 eR475 eR624 eR521

1 + + + + + + + + e3

el + + + + e4

e2 + + + + e7

e3 + + + + 1 (H.3) e4 + + + + el es + + + + e6 e6 + + + + es e7 + + + + e2

eR4 eRS2 eR67 eR13 eR127 eRS16 eR73S eR632

1 + + + + + + + + e4

el + + + + e3

e2 + + + + es e3 + + + + el (H.4) e4 + + + + 1 es + + + + e2

e6 + + + + e7

e7 + + + + e6

Page 7: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

223

eRS eR63 eR71 eR24 eR231 eR627 eRl46 eR743

1 + + + + + + + + es el + + + + es

e2 + + + + e7 e3 + + + + e4 (ii.5 ) e4 + + + + e6 es + + + + 1 e6 + + + + e3 e7 + + + + el

eR6 eR74 eRl2 eR35 eR342 eR731 eR2S7 eRIS4 1 + + + + + + + + e6

el + + + + e2

e2 + + + + el e3 + + + + es (ii.6) e4 + + + + e7 es + + + + e3

e6 + + + + 1 e7 + + + + e4

eR7 CRIS CR23 CR46 eR4S3 CR142 eR361 CR26S

+ + + + + + + + e7

el + + + + es C2 + + + + e3

e3 + + + + e2 (ii. 7) e4 + + + + e6

es + + + + el e6 + + + + e4

C7 + + + + 1

Page 8: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

Appendix iii. 0 L Actions: Product Rule eaea+l == ea+3.

Given the octonion Illultiplication,

eaea+l = e a+3,

the resulting multiplicatioll table is

1 el ez e3 e4 e5 e6 e7

el -1 e4 e7 -ez e6 -e5 -e3

ez -e4 -1 e5 el -e3 e7 -e6

e3 -e7 -e5 -1 e6 e2 -e4 el (iii.O) CI e2 -Cl -e6 -1 e7 C3 -e5

e5 -e6 e3 -e2 -e7 -1 el e4

e6 e5 -e7 e4 -e3 -eI -1 e2

e7 e3 e6 -eI e5 -e4 -e2 -1

The resulting adjoint actions are

1 eL325 eL436 eL547 eL651 eL762 eL173 CL214

1 + + + + + + + + 1 el + + + + el

e2 + + + + e2

e3 + + + + e3 (iiU) e4 + + + + e4

e5 + + + + e5

e6 + + + + e6

e7 + + + + e7

Page 9: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

226 APPENDIX III

eLl eL37 eL56 eL24 eL453 eL764 eL572 eL632

1 + + + + + + + + el

el + + + + 1 e2 + + + + e4

e3 + + + + e7 (iii,2) e4 + + + + e2

e5 + + + + e6

e6 + + + + e5

e7 + + + + e3

eL2 eL41 eL67 eL35 eL564 eL175 eL613 eL743

1 + + + + + + + + e2

el + + + + e4

e2 + + + + 1 e3 + + + + e5 (iii.3) e4 + + + + el e5 + + + + e3

e6 + + + + e7

e7 + + + + e6

eL3 eL52 eL71 eL46 eL675 eL216 eL724 eL154

1 + + + + + + + + e3

el + + + + e7

e2 + + + + e5

e3 + + + + 1 (iii.4 ) e4 + + + + e6

es + + + + e2

e6 + + + + e4

e7 + + + + el

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227

eL4 eU3 eL12 eLS7 eL716 eL327 eL13S eL26S

1 + + + + + + + + e4

el + + + + e2

e2 + + + + el e3 + + + + e6 (iiL5 ) e4 + + + + 1 es + + + + e7

e6 + + + + e3

e7 + + + + es

eLS eL74 eL23 eL61 eL127 eL431 eL246 eL376

1 + + + + + + + + es el + + + + e6

e2 + + + + e3

e3 + + + + e2 (iii.6) e4 + + + + e7

es + + + + 1 e6 + + + + el e7 + + + + e4

eL6 eL1S eL34 eL72 eL231 eLS42 eL3S7 eL417

1 + + + + + + + + e6

el + + + + es e2 + + + + e7

e3 + + + + e4 (Hi.7) e4 + + + + e3

es + + + + el e6 + + + + 1 e7 + + + + e2

Page 11: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

228 APPENDIX III

eL7 eL26 eL4S eL13 eL342 eL6S3 eL461 eLS21

1 + + + + + + + + e7

el + + + + e3

e2 + + + + e6

e3 + + + + el (iii.8) e4 + + + + es es + + + + e4

e6 + + + + e2

e7 + + + + 1

Page 12: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

Appendix iv. 0 R Actions: Product Rule eaea+l == ea+3.

Finally

1 eR325 eR436 eR547 eR651 eR762 eR173 eR214

1 + + + + + + + + 1 el + + + + el e2 + + + + e2

e3 + + + + e3 (iv.O) e4 + + + + e4

e5 + + + + e5

e6 + + + + e6

e7 + + + + e7

eR! eR37 eR56 eR24 eR453 eR764 eR572 eR632

1 + + + + + + + + el

et + + + + 1 e2 + + + + e4

e3 + + + + e7 (iv.1 ) e4 + + + + e2

e5 + + + + e6

es- + + + + e5

e7 + + + + e3

229

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230 APPENDIX IV

eR2 eR41 eR67 eR3S eRS64 eR17S eR613 eR743

1 + + + + + + + + e2

el + + + + e4

e2 + + + + 1 e3 + + + + es (iv.2) e4 + + + + el es + + + + e3

e6 + + + + e7

e7 + + + + e6

eR3 eRS2 eR71 eR46 eR675 eR216 eR724 eR154

1 + + + + + + + + e3

el + + + + e7

e2 + + + .+ es e3 + + + + 1 (iv.3) e4 + + + + e6

e5 + + + + e2

e6 + + + + e4

e7 + + + + el

eR4 eR63 eR12 eRS7 eR716 eR327 eR135 eR265

1 + + + + + + + + e4

el + + + + e2

e2 + + + + el e3 + + + + e6 (iv.4 ) e4 + + + + 1 e5 + + + + e7

e6 + + + + e3

e7 + + - + + es

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231

eRS eR74 eR23 eR61 eR127 eR431 eR246 eR376

1 + + + + + + + + es e1 + + + + e6

e2 + + + + e3

e3 + + + + e2 (iv.5) e4 + + + + e7

es + + + + 1 e6 + + + + e1

e7 + + + + e4

eR6 eR1S eR34 eR72 eR231 eRS42 eR357 eR417

1 + + + + + + + + e6

e1 + + + + es e2 + + + + e7

e3 + + + + e4 (iv.6) e4 + + + + e3

es + + + + el

e6 + + + + 1 e7 + + + + e2

eR7 eR26 eR4S eR13 eR342 eR6S3 eR461 eRS21

1 + + + + + + + + e7

el + + + + e3

e2 + + + + e6

e3 + + + + el (iv.7) e4 + + + + es es + + + + e4

e6 + + + + e2

e7 + + + + 1

Page 15: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

Bibliography

[1] I.R. Porteous, Topological Geometry, (Cambridge, 2nd Ed., 1981).

R. Ablamowicz, P. Lounesto, J. Maks: Report on the Second "Workshop on Clifford Aigebras and Their Applications in Mathematical Physics," Found. Phys. 21 (1989) 201.

[2] G.M. Dixon, Aigebraic Unification, Phys. Rev. D 28 (1983) 833.

[3] G.M. Dixon, Generalized Clifford Aigebras: Orthogonal and Symplectic Cases, Lett. Math. Phys. 5 (1981) 411.

[4] G.M. Dixon, Fermionic Clifford Aigebras and Supersymmetry, Clifford Algebras and their Application in Mathematical Physics, (D. Reidel Publishing Co., 1986) 393.

[5] V.G. Kac, A Sketch of Lie Superalgebra Theory, Comm. Math. Phys. 53 (1977) 31.

[6] G.M. Dixon, Derivation of the Standard Model, Il Nuovo Cimento 105B (1990) 349.

[7] C.A. Manogue, A. Sudbery, General Solutions of Covariant Superstring Equations of Motion, Phys. Rev. D 40 (1989) 4073.

C.A. Manogue, J. Schray, Finite Lorentz Transformations, Automor­phisms, and Division Aigebras, J. Math. Phys. 34 (1993) 3746.

[8] I. Bengtsson, M. Cederwall, Particles, Twistors and Division Aigebras, Nuc. Phys. B302 (1988) 81.

/\

M. Cederwall, C.R. Preitschopf, S1 and S1, hep-th-9309030.

233

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234 BIBLIOGRAPHY

[9J M. Günaydin, G. Sierra, P.K. Townsend, Exeeptional Supergravity The­ories and the Magie Square, Phys. Lett. 133B (1983) 72.

[10] J.H. Conway, N.J .A. Sloane, Sphere Paclcings, Lattices and Groups, (Springer-Verlag, 2nd Ed., 1991).

[l1J F.D. Smith, Calculation of 130 GeV Mass for T-quark, hep-ph-9301210.

F.D. Smith, SU(3) x SU(2) x U(l), Higgs, and Gravity from Spin(O, 8) Clifford Algebra Cl(O, 8), hep-th-9402003.

[12J E.s. Abers, B.W. Lee, Phys. Rep. 9C (1973) 1.

[13J P. Candelas, G.T. Horowitz, A. Strominger, E. Witten, Super­string Phenomenology, Symposium on Anomolies, Geometry, Topology, (World Scientifie Publishing Co. Pte. Ltd., 1985) 377.

[14J A. Sudbery, Division Algebras, (Pseudo)orthogonal Groups and Spinors, J. Phys. A 17 (1984) 939.

[15J M. Günaydin, G. Sierra, P.K. Townsend,The Geometry of N=2 Maxwell-Einstein Supergravity and Jordan Algebras, Nue. Phys. B242 (1984) 244.

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Index

Adjoint Division Algebras, 35,39 Charge Conjugation, 128 Chirality, 29 Chiral Projeetor, 17,21 CL, CR, 39 Clifford Algebra, 11,40,59,137

- universal, 12,192 - nonuniversal, 13,192 - tables of, 14,15

Dimensional Reduetion, 85 Dirae Operator, 88,94,117

- parity violating, 96,117 Division Algebra, 32 Family (Lepto-quark), 30,79,90 G2 ,46 Galois Field, 49 Galois Sequenee,49 Gauge Fields, 97,105 Hadamard Matrix, 34 Idempotent, 43,60,69

- primitive, 43,60,69 Internal Symmetry, 64,73 Jordan Algebra, 208 Lepton, 29,90 LE6 , 195,214 LE7, 196,215 LEs,197,216 LF4 , 194,203,208 LG2 ,46,170

- triality triplet LG~, 176,179,187

Lie Superalgebra, 27 Magie Square, 191,213 Matter / antimatter Mixing, 120,12 Moufang Identities, 148 Multiplets, 78 Nilpotent Clifford Algebra, 24

- symplectic, 25 Oetonion, 31 OL,36,39 OLX, 187 OR,37,39 Po,45,141 Parity Noneonservation, 29,92,94 Pauli Algebra, 18,60 Periodicity (Index), 32,33,53 Pseudosealar, 13,17 QL, QR, 39 Quadratie Residue Code, 56 Quark, 29,90 Quaternion, 31 R O,2,42 R 3,o, 18,59 R 1,3, 19,84 R 3,11 16,43 R O,6,40 Rs,o,48 Ro,g, 67 Rt,g, 20,85,137 Resolution ofthe Identity, 43,60,68 Sealar Field, 109,126 Special Linear Groups, 135

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236

Spheres (parallelizable), 150 Sphere Fibrations, 159 Spin Group, 13 Spinor, 13,40,59

- conjugations, 22 - Dirac, 16,132 - inner product, 61,68 .. Majorana, 16,132 - Majorana-Weyl, 22,138 - outer product, 198 - Pauli, 16,61 - Weyl, 17

Spontaneo.us Symmetry Break-ing, 30,109

Stability Group, 47 Standard Model, 29 Standard Symmetry, 29,73 SU(3),47,105,111,122,177 To, 142 Tangent Space, 151 Tensored Division Algebra, 59,66 Torsion, 158 Triality, 160,209

- Freudenthal's principle, 169 - Tri, 165,167,169,209 - trilinear form, 161,162

Twistor, 133 Weak Mixing, 100 X -Product, 155,175

INDEX

Page 19: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

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Page 20: Appendix i. 0 L Actions: Product Rule +l == +5.978-1-4757-2315-1/1.pdf · Appendix i. 0 L Actions: Product Rule eaea+l == ea+5. Given the octonion multiplication, eaea+l = ea+s, the

Other Mathematics and lts Applications titles of interest:

0.1. Zavialov: Renormalized Quantum Field Theory. 1990,560 pp. ISBN 90-277-2758-9

S.S. Horuzhy: Introduction to Algebraic Quantum Field Theory. 1990, 360 pp. ISBN 90-277-2722-8

V.G. Makhankov: Soliton Phenomenology. 1990,461 pp. ISBN 90-277-2830-5

S. Albeverio, PH. Blanchard and L. Streit: Stochastic Processes and their Applica­tions in Mathematics and Physics. 1990,416 pp. ISBN 0-9023-0894-8

V.A. Malyshev and R.A. Minios: Gibbs Random Fields. Cluster Expansions. 1991, 248 pp. ISBN 0-7923-0232-X

E. Tirapegui and W. Zeller (eds.): Proceedings ofthe 3rd Workshop on Instabilities and Nonequilibrium Structures. 1991,370 pp. ISBN 0-7923-1153-1

C.A. Marinov and P. Neittaanmaki: Mathematical Models in Electrical Circuits. Theory and Applications. 1991, 160 pp. ISBN 0-7923-1155-8

C. Bartocci, U. Bruzzo and D. Hernandez-Ruiperez: The Geometry of Super­manifolds. 1991,242 pp. ISBN 0-7923-1440-9

E. Goles and S. Martinez: Statistical Physics, Automata Networks and Dynamical Systems. 1992,208 pp. ISBN 0-7923-1595-2

A. van der Burgh and J. Simonis (eds.): Topics in Engineering Mathematics. 1992, 266 pp. ISBN 0-7923-2005-3

L. Aizenberg: Carleman 's Formulas in Complex Analysis. 1993,294 pp. ISBN 0-7923-2121-9

E. Tirapegui and W. Zeller (eds.): Instabilities and Nonequilibrium Structures IV. 1993,371 pp. ISBN 0-7923-2503-6

G.M. Dixon: Division Aigebras: Octonions, Quaternions, Complex Numbers and the Algebraic Design of Physics. 1994, 246pp. ISBN 0-7923-2890-6