Comment on higher derivative Lagrangians in relativistic theory

preprint2013arXivOpen access

Abstract

We discuss the consequences of higher derivative Lagrangians of the form α1Aμ(x)x˙μα_1 A_μ(x)\dot{x}^μ, α2Gμ(x)x¨μα_2 G_μ(x)\ddot{x}^μ, α3Bμ(x)x...μα_3 B_μ(x)\dddot{x}^μ, α4Kμ(x)x....μα_4 K_μ(x)\ddddot{x}^μ, ⋯\cdots, U(n)μ(x)x(n)μU_{(n)μ}(x)x^{(n)μ} in relativistic theory. After establishing the equations of the motion of particles in these fields, we introduce the concept of the generalized induction principle assuming the coupling between the higher fields U(n),μ(x), n≥1U_{(n),μ}(x),\ n\geq1 with the higher currents j(n)μ=ρ(x)x(n)μj^{(n)μ}=ρ(x)x^{(n)μ}, where ρ(x)ρ(x) is the spatial density of mass or of electric charge. In addition, we discuss the analogy of the field Gμ(x)G_μ(x) with the gravitational field and its inclusion in the general relativity framework in the last section. This letter is an invitation to reflect on a generalisation of the concept of inertia and we also discuss this problem in the last section.

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