Abstract
The composition algebra based methodology (CAM) (Wolk in Pap Phys 9:090002, 2017, Phys Scr 94:025301, 2019, Adv Appl Clifford Algebras 27(4):3225, 2017, J Appl Math Phys 6:1537, 2018, Phys Scr 94:105301, 2019) has previously been shown to generate the pre-Higgs Standard Model Lagrangian. In this paper the symmetry of general covariance is incorporated into CAM. The Riemann curvature tensor thereby arises, from which gravity-field Lagrangians are constructed. A Higgs-like scalar field coupled to the spacetime metric tensor also manifests.
Similar content being viewed by others
Notes
The Cayley–Dickson composition algebras \(\left\{ \mathbb {K},{{{\mathbb {K}}}^{\prime }}\right\} \), with the Hurwitz algebras \(\mathbb {K}=\left\{ \mathbb {R},\mathbb {C},{{\mathbb {H}}},\mathbb {O}\right\} \) and \({{\mathbb {K}}}^{\prime }\) being the unique split versions of \(\mathbb {K}\) [14]. The only Cayley–Dickson algebras which are composition algebras (algebras \(\mathbb {A}\) such that for any two elements the norm of their product equals the product of their norms [30, 45]: \(\left\| xy\right\| =\left\| x\right\| \left\| y\right\| \;\forall x,y\in \mathbb {A}\)) reside in 1, 2, 4 and 8 dimensions, corresponding to \(\mathbb {K}=\left\{ \mathbb {R},\mathbb {C},\mathbb {H},\mathbb {O}\right\} \) [30, 45] and their split versions \(\mathbb {K}^{\prime }=\left\{ \mathbb {C}^{\prime },\mathbb {H}^{\prime },\mathbb {O}^{\prime }\right\} \) [12, 48]. Only the \(\mathbb {K}\) algebras are division algebras (composition algebras without zero divisors) [12, 48]. However, since the non-division, composition algebra \(\mathbb {O}^{\prime }\) was also needed along with the \(\mathbb {K}\) algebras in developing \(SU(3)_{c}\) the term CAM is the appropriate designation for the formalism in general.
Ref. [59], pp. 91–92.
Also termed the Riemann curvature operator \(\mathscr {R}_{\mu \nu }\) with Levi-Civita connection: \(\left( \mathscr {R}_{\mu \nu },\nabla ^{\varvec{g}}\right) \rightarrow \left[ \nabla _{\mu },\nabla _{\nu }\right] \) (Ref. [34], Eq. (10.2)).
For example, See Ref. [66], Sec. 2.2 regarding SU(2) force field operators.
See Ref. [64] and citations therein on \(\mathcal {Z}\).
Ref. [59], Eq. (6.6.1).
A consideration separate from our knowledge of the necessary form of the Lagrangian shows that use of \(g^{\nu \omega }\) in Eq. (23) is correct. In the U(1) formalism the electromagnetic potential field \(A_{\mu }\) was involved in the analogous operator equation [63]. Since the tensor \(g_{\mu \nu }\) is the gravitational potential field in analogy with \(A_{\mu }\) [6, 24, 39, 50, 59], we may have conjectured that \(g_{\mu \nu }\) would be the entity involved in the operation, just as \(A_{\mu }\) was for U(1).
Ref. [34], Sec. 11.2.
References
Ablamowicz, R., Sobczyk, G.: Lectures on Clifford (Geometric) Algebras and Applications. Birkhauser, Boston (2004)
Baez, J.: The octonions. Bull. Am. Math Soc. 39(2), 145 (2002)
Baez, J., Huerta, J.: The strangest numbers in string theory. Sci. Am. 304, 60 (2011)
Baez, J., Muniain, J.P.: Gauge Fields, Knots and Gravity. World Scientific Publishing Co. Pte. Ltd., Hackensack (2013)
Belishev, M.I., Vakulenko, A.F.: On algebras of harmonic quaternion fields in \(\mathbb{R}^{3}\). arXiv:1710.00577v3 [math.FA] (2017)
Bergmann, P.G.: Introduction to the Theory of Relativity. Dover Publications Inc, New York (1976)
Bisht, P.S.: Split octonion electrodynamics and unified fields of dyons. In: 4th Conference on Nuclear and Particle Physics (2003)
Brown, R., Hopkins, N.: Noncommutative matrix Jordan algebras. Trans. Am. Math. Soc. 333(1), 137 (1992)
Castro, C.: On the noncommutative and nonassociative geometry of octonionic spacetime, modified dispersion relations and grand unification. J. Math. Phys. 48, 073517 (2007)
Collins, P.D.B., Martin, A.D., Squires, E.J.: Particle Physics and Cosmology. Wiley, New York (1989)
Conway, J.H., Smith, D.A.: On Quaternions and Octonions. CRC Press, Boca Raton (2003)
Conway, J.H., Smith, D.A.: On Quaternions and Octonions: their Geometry, Arithmetic and Symmetry. CRC Press, Boca Raton (2003)
Daboul, J., Dabourgo, L.: Matrix representation of octonions and generalizations. J. Math. Phys. 40, 4134 (1999)
Dray, T., Manogue, C.A.: The Geometry of the Octonions. World Scientific Publishing Co., Ptc. Ltd., New Jersey (2015)
D’Inverno, R.: Introducing Einstein’s Relativity. Clarendon Press, Oxford (1992)
Einstein, A.: The foundation of general relativity. Annalen der Physik 49, 769–822 (1916)
Einstein, A.: Relativity: The Special and General Theory. Methuen & Co., Ltd, London (1916)
Einstein, A.: Physics and reality. J. Frankl. Inst. 221, 349–382 (1936)
Einstein, A.: Autobiographical notes, reprinted in S Hawking. In: A Stubbornly Persistent Illusion, The Essential Scientific Works of Albert Einstein. Running Press Book Publishers, Philadelphia (2007)
Einstein, A.: Jahrb. Radioakt. 4, 411 (1907)
Fecko, M.: Differential Geometry and Lie Groups for Physicists. Cambridge University Press, New York (2011)
Ferraris, M., et al.: Do nonlinear metric theories of gravitation really exist? Class. Quantum Gravity 5, L95 (1988)
Folomeshkin, V.N.: The quadratic Lagrangians in general relativity. Commun. Math. Phys. 22, 115 (1971)
Frankel, T.: Gravitational Curvature, An Introduction to Einstein’s Theory. W.H. Freeman & Co., San Francisco (1979)
Girard, P.R.: The quaternion group and modern physics. Eur. J. Phys. 5, 25 (1984)
Griffiths, D.: Introduction to Elementary Particles, 2nd edn. Wiley-VCH, Weinheim (2008)
Hay, G.E.: Vector & Tensor Analysis. Dover Publications, Inc., New York (1953)
Hooft, G.T.: Renormalizable Lagrangians for massive Yang-Mills fields. Nucl. Phys. B 33, 167–188 (1971)
Hovis, R.C., Kragh, H.: PAM Dirac and the beauty of physics. Sci. Am. 268(5), 104 (1993)
Hurwitz, A.: Nachr. Ges. Wiss. Göttingen 309 (1898)
Kane, G.: String Theory and the Real World. Morgan & Claypool Publishers, San Rafeal (2017)
Krishnaswami, G.S., Sachdev, S.: Algebra and geometry of Hamilton’s quaternions. Resonance J. Sci. Educ. 21(6), 529 (2016)
Lounesto, P.: Octonions and triality. Adv. Appl. Clifford Algebras 11(2), 191 (2001)
Maia, M.D.: Geometry of the Fundamental Interactions. Springer Science+Business Media, LLC, New York (2011)
Maiani, L.: Electroweak Interactions. CRC Press, Boca Raton (2016)
Mukhanov, V.F., Winitzki, S.: Introduction to Quantum Effects in Gravity. Cambridge University Press, New York (2007)
Nissani, N.: Quadratic Lagrangian for general relativity theory. Phys. Rev. D 31, 1489 (1985)
Okubo, S.: Introduction to Octonion and Other Non-associative Algebras in Physics, Montroll Memorial Lecture Series in Mathematical Physics 2. Cambridge University Press, Cambridge (1995)
Pauli, W.: Theory of Relativity. Dover Publications Inc., New York (1958)
Peebles, P.J.E.: Quantum Mechanics. Princeton University Press, Princeton (1992)
Quigg, C.: Gauge Theories of the Strong, Weak, and Electromagnetic Interactions, 2d edn. Princeton University Press, Princeton (2013)
Quigg, C.: Unanswered questions in electroweak theory. arXiv:0905.3187v2, Theoretical Physics Dept., Fermi National Accelerator Laboratory, Batavia (2009)
Quigg, C.: Electroweak symmetry in historical perspective. arXiv:1503.01756v3, Theoretical Physics Dept., Fermi National Accelerator Laboratory, Batavia (2015)
Quigg, C.: Spontaneous symmetry breaking as a basis for particle mass. arXiv:0704.2232v2, Theoretical Physics Dept., Fermi National Accelerator Laboratory, Batavia (2007)
Ramond, P.: Group Theory—A Physicist’s Survey. Cambridge University Press, Cambridge (2010)
Robinson, M.: Symmetry and the Standard Model. Springer Science+Business Media, LLC, New York (2011)
Rudolph, G., Schmidt, M.: Differential Geometry and Mathematical Physics, Part II. Springer Science+Business Media, Dordrecht (2017)
Schafer, R.D.: On the algebras formed by the Cayley–Dickson process. Am. J. Math. 76, 435 (1954)
Schafer, R.D.: An Introduction to Non-associative Algebras. Dover Publications, New York (1995)
Scharf, G.: Gauge Field Theories: Spin One and Spin Two. Dover Publications Inc, New York (2016)
Schutz, B.F.: A First Course in General Relativity. Cambridge University Press, Cambridge (1985)
Schwichtenberg, J.: Physics from Symmetry. Springer International Publishing, Cham (2015)
Springer, T.A., Veldkamp, F.D.: Octonions, Jordan Algebras and Exceptional Groups. Springer, Berlin (2000)
Stephenson, G.: Quadratic Lagrangians and general relativity. Nuovo Cim. 9, 263 (1958)
Suh, T.: Algebras formed by the Zorn vector matrix. Pac. J. Math. 30(1), 255–258 (1969)
Tanabashi, M. et al. (Particle Data Group): Review of particle physics: status of Higgs boson physics. Phys. Rev. D 98, 030001 (2018)
Wald, R.M.: General Relativity. University of Chicago Press, Chicago (1984)
Walecka, J.D.: Introduction to General Relativity. World Scientific Publishing Co., Hackensack (2007)
Weinberg, S.: Gravitation and Cosmology: Principles and Applications of the General Theory of Relativity. Wiley, New York (1972)
Weinberg, S.: The Quantum Theory of Fields, vol. I. Cambridge University Press, New York (2005)
Wigner, E.P.: Symmetries and Reflections. Indiana University Press, Bloomington (1967)
Witten, E.: Reflections on the fate of spacetime. Phys. Today 49(4), 24 (1996)
Wolk, B.: An alternative derivation of the Dirac operator generating intrinsic Lagrangian local gauge invariance. Pap. Phys. 9, 090002 (2017)
Wolk, B.: On an intrinsically local gauge symmetric SU(3) field theory for quantum chromodynamics. Adv. Appl. Clifford Algebras 27(4), 3225 (2017)
Wolk, B.: Addendum to on an intrinsically local gauge symmetric SU(3) field theory for quantum chromodynamics. J. Appl. Math. Phys. 6, 1537 (2018)
Wolk, B.: An alternative formalism for generating pre-Higgs SU(2) x U(1) electroweak unification that intrinsically accommodates SU(2) left-chiral asymmetry. Phys. Scr. 94, 025301 (2019)
Wolk, B.: The division algebraic constraint on gauge mediated proton decay. Phys. Scr. 94, 105301 (2019)
Author information
Authors and Affiliations
Corresponding author
Additional information
Communicated by Vladislav Kravchenko
Publisher's Note
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
Rights and permissions
About this article
Cite this article
Wolk, B.J. The Riemann Curvature Tensor and Higgs Scalar Field within CAM Theory. Adv. Appl. Clifford Algebras 30, 4 (2020). https://doi.org/10.1007/s00006-019-1033-5
Received:
Accepted:
Published:
DOI: https://doi.org/10.1007/s00006-019-1033-5