1985
DOI: 10.1002/9780470142844.ch7
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The Franck—Condon Principle in Bound‐Free Transitions

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Cited by 83 publications
(22 citation statements)
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“…One such normalization is an energy normalization [15] which may on occasion generate exact analytical results. A second method involves placing the system in an infinite potential well, box normalization [16], such that states at all energies are bound, with states in the previously continuous regime becoming discretized due to the box. Any results found using this method will converge towards the correct value for an increasing radius of confinement; the case as the radius of confinement approaches infinity is that of the unbound system.…”
Section: Part Imentioning
confidence: 99%
“…One such normalization is an energy normalization [15] which may on occasion generate exact analytical results. A second method involves placing the system in an infinite potential well, box normalization [16], such that states at all energies are bound, with states in the previously continuous regime becoming discretized due to the box. Any results found using this method will converge towards the correct value for an increasing radius of confinement; the case as the radius of confinement approaches infinity is that of the unbound system.…”
Section: Part Imentioning
confidence: 99%
“…It has to be emphasized however, that in any of the above Rydberg-state studies emission spectra in MRg complexes have not been observed, except one investigation. For the HgAr, Duval et al [4] recorded dispersed emission bound→bound spectra using the C 3 1(7 3 S 1 ), 𝜐 ′ = 3 → A 3 0 + (6 3 P 1 ), 𝜐′′, C 3 1, 𝜐 ′ = 14,19 → a 3 0 − (6 3 P 0 ), 𝜐′′ and C 3 1, 𝜐 ′ = 2,4,14 → b 3 2(6 3 P 2 ), c 3 1(6 3 P 2 ), d 3 0 − (6 3 P 2 ), 𝜐′′ transitions, as well as long bound→free undulated CID reflection [20] patterns using the 𝐶 3 1, 𝜐 ′ = 3, 11 → a 3 0 − , C 3 1, 𝜐 ′ = 2, 10 → A 3 0 + , B 3 1 and C 3 1, 𝜐 ′ = 3, 14 → b 3 2, c 3 1, d 3 0 − transitions; it allowed to probe and determine lower-lying state potentials including their repulsive branches.…”
Section: Introductionmentioning
confidence: 98%
“…a radial wavefunction with zero amplitude) and show that multiplication by ρ(W ) (which is infinite) gives energy-normalized finite-amplitude wavefunctions satisfying Eq. (10). The left hand side of this equation takes the form…”
Section: Cross-sections For Bound-to-continuum Transitions: Enermentioning
confidence: 99%
“…The first method uses a particular form of normalization for the continuum states called energy-normalization, 9 which we introduce below. The second method involves placing the system in an infinite well (box normalization) 10 which causes all states to be bound so that states in the previously continuous regime become discretized, allowing the familiar techniques from a bound-to-bound approach to be used to perform bound-to-continuum calculations.…”
Section: Introductionmentioning
confidence: 99%
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