
We review some basic notions and results of White Noise Analysis that are used in the construction of the Feynman integrand as a generalized White Noise functional. After sketching this construction for a large class of potentials we show that the resulting Feynman integrals solve the Schroedinger equation.
white noise analysis, generalized white noise functional, Path integrals in quantum mechanics, Random operators and equations (aspects of stochastic analysis), FOS: Physical sciences, Schrödinger equation, Mathematical Physics (math-ph), Generalized stochastic processes, 81S40, 58D30, 46T12, 60H40; 81S40, 58D30, 46T12, Feynman integrals, Mathematical Physics, 60H40
white noise analysis, generalized white noise functional, Path integrals in quantum mechanics, Random operators and equations (aspects of stochastic analysis), FOS: Physical sciences, Schrödinger equation, Mathematical Physics (math-ph), Generalized stochastic processes, 81S40, 58D30, 46T12, 60H40; 81S40, 58D30, 46T12, Feynman integrals, Mathematical Physics, 60H40
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