Class Bn-functions property of Feynman integrals
E. B. Manoukian
Abstract
Open-access reader
E. B. Manoukian
Abstract
Open-access reader
The class B n -functions property of Feynman integrands (and hence also of absolutely convergent Feynman integrals) is proved as functions of internal and external momenta and the masses involved in the theory. The author shows how one may find real constants b r >1, r=1, ..., k, which set energy scales, such that for certain parameters eta r ,r=1, ..., k, with eta r >or=b r , the absolute value of a Feynman integrand J may be bounded, with respect to the eta r , with the so called power asymptotic coefficients denoting estimated degrees of J with respect to the parameters eta r , respectively. This basic result is a key one in studying the asymptotic behaviour of (renormalised) Feynman amplitudes and in establishing the convergence proof of renormalisation.
OpenAlex reports 4 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
The class B n -functions property of Feynman integrands (and hence also of absolutely convergent Feynman integrals) is proved as functions of internal and external momenta and the masses involved in the theory. The author shows how one may find real constants b r >1, r=1, ..., k, which set energy scales, such that for certain parameters eta r ,r=1, ..., k, with eta r >or=b r , the absolute value of a Feynman integrand J may be bounded, with respect to the eta r , with the so called power asymptotic coefficients denoting estimated degrees of J with respect to the parameters eta r , respectively. This basic result is a key one in studying the asymptotic behaviour of (renormalised) Feynman amplitudes and in establishing the convergence proof of renormalisation.
Key concepts: Feynman diagram, Feynman integral, Absolute convergence, Mathematics, Bounded function, Mathematical physics, Class (philosophy), Pure mathematics