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Rydbergization

Such a series of lines is called a Rydberg series [26]. These lines also converge to the ionization energy of the atom or molecule, and fitting the lines to this fonuula can give a very accurate value for the ionization energy. In the case of molecules there may be resolvable vibrational and rotational stmcture on the lines as well. [Pg.1145]

Three-photon absorption has also been observed by multiphoton ionization, giving Rydberg states of atoms or molecules [36]. Such states usually require vacuum ultraviolet teclmiques for one-photon spectra, but can be done with a visible or near-ultraviolet laser by tluee-photon absorption. [Pg.1147]

Duncan ABF 1971 Rydberg Series in Atoms and Molecules (New York Academic)... [Pg.1148]

Sandorfy C (ed) 1999 The Role of Rydberg States in Spectroscopy and Photochemistry (London Kluwer Academic)... [Pg.1148]

Merkt F 1997 Molecules in high Rydberg states Ann. Rev. Phys. Chem. 48 675-709... [Pg.1148]

For all calculations, the choice of AO basis set must be made carefully, keeping in mind the scaling of the two-electron integral evaluation step and the scaling of the two-electron integral transfonuation step. Of course, basis fiinctions that describe the essence of the states to be studied are essential (e.g. Rydberg or anion states require diffuse functions and strained rings require polarization fiinctions). [Pg.2189]

A term that is nearly synonymous with complex numbers or functions is their phase. The rising preoccupation with the wave function phase in the last few decades is beyond doubt, to the extent that the importance of phases has of late become comparable to that of the moduli. (We use Dirac s terminology [7], which writes a wave function by a set of coefficients, the amplitudes, each expressible in terms of its absolute value, its modulus, and its phase. ) There is a related growth of literatm e on interference effects, associated with Aharonov-Bohm and Berry phases [8-14], In parallel, one has witnessed in recent years a trend to construct selectively and to manipulate wave functions. The necessary techifiques to achieve these are also anchored in the phases of the wave function components. This bend is manifest in such diverse areas as coherent or squeezed states [15,16], elecbon bansport in mesoscopic systems [17], sculpting of Rydberg-atom wavepackets [18,19], repeated and nondemolition quantum measurements [20], wavepacket collapse [21], and quantum computations [22,23], Experimentally, the determination of phases frequently utilizes measurement of Ramsey fringes [24] or similar" methods [25]. [Pg.96]

The ionization energy for hydrogen (or other hydrogen-like systems) can be found from the Rydberg equation... [Pg.76]

Note that we are interested in nj, the atomic quantum number of the level to which the electron jumps in a spectroscopic excitation. Use the results of this data treatment to obtain a value of the Rydberg constant R. Compare the value you obtain with an accepted value. Quote the source of the accepted value you use for comparison in your report. What are the units of R A conversion factor may be necessary to obtain unit consistency. Express your value for the ionization energy of H in units of hartrees (h), electron volts (eV), and kJ mol . We will need it later. [Pg.76]

This pieture is that deseribed by the BO approximation. Of eourse, one should expeet large eorreetions to sueh a model for eleetronie states in whieh loosely held eleetrons exist. For example, in moleeular Rydberg states and in anions, where the outer valenee eleetrons are bound by a fraetion of an eleetron volt, the natural orbit frequeneies of these eleetrons are not mueh faster (if at all) than vibrational frequeneies. In sueh eases, signifieant breakdown of the BO pieture is to be expeeted. [Pg.65]

When aos are eombined to form mos, eore, bonding, nonbonding, antibonding, and Rydberg moleeular orbitals ean result. The mos (j) are usually expressed in terms of the eonstituent atomie orbitals Xa iii the linear-eombination-of-atomie-orbital-moleeular-orbital (LCAO-MO) manner ... [Pg.153]

It is essential to keep in mind that all atoms possess excited orbitals that may become involved in bond formation if one or more electrons occupies these orbitals. Whenever aos with principal quantum number one or more unit higher than that of the conventional aos becomes involved in bond formation, Rydberg mos are formed. [Pg.158]

An example of the interaetion of 3 s Rydberg orbitals of a moleeule whose 2s and 2p orbitals are the valenee orbitals and of the evolution of these orbitals into united-atom orbitals is given below. [Pg.158]

Rydberg Overlap is Strong and Bond Formation Occurs... [Pg.160]

The In-Phase ( 3s + 3s) Combination of Rydberg Orbitals Correlates to an s-type Orbital of the United Atom... [Pg.160]

The Out-of-Phase Combination of Rydberg Orbitals ( 3s - 3s ) Correlates to a p-type United-Atom Orbital... [Pg.160]

Orthogonalize (using Eowdin (symmetrie) orthogonalization) the following Is (eore), 2s (valenee), and 3s (Rydberg) STO s for the Ei atom given ... [Pg.200]

In summary, an atom or molecule has many orbitals (core, bonding, non-bonding, Rydberg, and antibonding) available to it occupancy of these orbitals in a particular manner gives rise to a configuration. If some orbitals are partially occupied in this configuration. [Pg.239]


See other pages where Rydbergization is mentioned: [Pg.50]    [Pg.349]    [Pg.349]    [Pg.200]    [Pg.1119]    [Pg.1145]    [Pg.1145]    [Pg.1145]    [Pg.2024]    [Pg.2084]    [Pg.2084]    [Pg.2154]    [Pg.2172]    [Pg.108]    [Pg.108]    [Pg.352]    [Pg.517]    [Pg.517]    [Pg.517]    [Pg.5]    [Pg.2]    [Pg.158]    [Pg.158]    [Pg.160]    [Pg.160]    [Pg.473]    [Pg.473]    [Pg.491]    [Pg.82]    [Pg.101]   
See also in sourсe #XX -- [ Pg.15 ]

See also in sourсe #XX -- [ Pg.173 , Pg.560 ]




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A gas of Rydberg atoms

A macroscopic sieve for Rydberg atoms

Alkaline earth Rydberg state

Angular Rydberg wave packets

Atom, Rydberg

Atomic spectra Rydberg equation

Atomic units Rydberg

Autoionising Rydberg series in a flat continuum

Autoionizing levels Rydberg

Balmer-Rydberg equation

Balmer-Rydberg formula

Barium Rydberg state

Basic notions of autoionizing Rydberg states

Benzene Rydberg spectrum

Benzene singlet Rydberg states

Bond Rydberg

Bound He Rydberg states

Cavities Rydberg atom studies

Circular Rydberg states

Conclusion the Rydberg signature and its implications

Convergence limits, Rydberg

Cyclopropanes Rydberg transitions

D Rydberg Series of Ca, Sr, and Ba

Delocalized Rydberg state

Detection of Rydberg atoms

Determination the Rydberg constant

Double Rydberg states

Double resonance Rydberg states

Effective Rydberg

Effective Rydberg donors

Electrostatic Perturbations Between Valence and Rydberg States

Emission lines and the Rydberg equation

Emission spectrum Rydberg equation

Ethylene Rydberg orbitals

Even-Parity Rydberg Series of Alkaline-Earth Elements

Excitation of Rydberg states by very short pulses

Excitation to the Rydberg states

Exciton Rydberg series

Extended Rydberg function

Free radicals Rydberg radical

H-atom Rydberg tagging technique

H-atom Rydberg “tagging

Helium Rydberg state

Hydrogen Rydberg states

Hydrogen, atomic Rydberg constant

Hydrogen-like atom Rydberg constant

Hydrogenic radial wavefunctions for successive 2p and 3p Rydberg orbitals

IS Lamb Shift and the Rydberg Constant

Line spectra Rydberg equation

Masers, Rydberg state

Measurements of f values for high Rydberg members

Molecular Rydberg states calculation method

Molecular Rydberg states description

Molecular Rydberg states energy values

Molecular Rydberg states expression

Molecular Rydberg states quantum defects

Molecular Rydberg states transition intensities

Molecules Rydberg states

Natural Rydberg basis

Natural rotational quantum numbers for the NO 4 Rydberg complex

Neptunium Rydberg series

Odd-Parity Rydberg Series of Alkaline-Earth Elements

Of NO Rydberg states

Optical spectra of autoionizing Rydberg states

Orbitals Rydberg

Oscillator strength, Rydberg electron

Oxonium Rydberg radical

Pair Rydberg

Perturbation between Rydberg states

Photochemical reactions Rydberg states

Photochemistry Rydberg

Power, 112 Rydberg state

Pulsed-field ionization Rydberg states

Quantum electrodynamics Rydberg constant

Rydberg

Rydberg

Rydberg Electron Transfer

Rydberg Hamiltonian, diagonalized

Rydberg Photochemistry Photolysis of Methane

Rydberg Series of Yb

Rydberg States and the Zeeman Effect

Rydberg Wavepackets Kepler and Precessional Periods

Rydberg absorptions, structured, excitation

Rydberg analysis

Rydberg and valence

Rydberg atom spectroscopy

Rydberg atomic

Rydberg atoms constant

Rydberg atoms states

Rydberg auto-ionization

Rydberg autoionization

Rydberg autoionizing

Rydberg bands

Rydberg collisional

Rydberg constant

Rydberg constant for

Rydberg constant mass-corrected

Rydberg constant, calculation

Rydberg core-penetrating

Rydberg correction

Rydberg defect

Rydberg diamagnetism

Rydberg effective quantum number

Rydberg electron

Rydberg electron energy levels

Rydberg electron frequencies

Rydberg electron high orbital angular momentum states

Rydberg electron perturbation

Rydberg electron transfer spectroscopy

Rydberg electron/charge transfer

Rydberg emission spectra

Rydberg energy

Rydberg energy unit)

Rydberg energy, effective

Rydberg equation

Rydberg excitations

Rydberg excited states

Rydberg expression

Rydberg field ionization

Rydberg formula

Rydberg functions

Rydberg hyperfine structure

Rydberg isotope shift

Rydberg lanthanide

Rydberg laser spectroscopy

Rydberg levels

Rydberg levels autoionization

Rydberg levels collisional

Rydberg levels field ionization

Rydberg levels microwave ionization

Rydberg levels molecular

Rydberg levels, bound

Rydberg masers

Rydberg measurement

Rydberg microwave ionization

Rydberg molecular

Rydberg molecules

Rydberg number

Rydberg orbital

Rydberg orbital Ethane

Rydberg orbitals definition

Rydberg potential

Rydberg principal quantum number

Rydberg procedure

Rydberg regime

Rydberg results

Rydberg scale

Rydberg sequence

Rydberg series

Rydberg series in a modulated continuum

Rydberg series perturbed

Rydberg series unperturbed

Rydberg spectra

Rydberg spectra, excitation schemes

Rydberg spectral formula

Rydberg state, of ethylene

Rydberg states

Rydberg states SC)2CAS-SDCI

Rydberg states ZEKE spectroscopy

Rydberg states acetylene

Rydberg states autoionizing

Rydberg states charges

Rydberg states collisions

Rydberg states complex molecules

Rydberg states coupling constants

Rydberg states crossings

Rydberg states decay behavior

Rydberg states dipole moment

Rydberg states dynamics

Rydberg states experimental measurements

Rydberg states highly excited

Rydberg states in Hund’s case

Rydberg states in triatomic molecules

Rydberg states intramolecular coupling

Rydberg states lifetime

Rydberg states lifetime distribution

Rydberg states metastability

Rydberg states molecular

Rydberg states molecular hydrogen

Rydberg states multichannel quantum defect theory

Rydberg states of many-electron systems

Rydberg states optical excitation

Rydberg states photodissociation dynamics

Rydberg states quantum defect functions

Rydberg states rare gases

Rydberg states spectroscopy

Rydberg states time evolution

Rydberg states time scales

Rydberg states triplet

Rydberg states wavepackets

Rydberg states with core hole

Rydberg states, alkenes

Rydberg states, definition

Rydberg states, double photoionization

Rydberg states, of helium

Rydberg structure, observation

Rydberg symmetry properties

Rydberg tagging

Rydberg tagging schemes

Rydberg transition

Rydberg unit

Rydberg wave packets

Rydberg wavepacket

Rydberg, Johannes

Rydberg, Johannes Robert

Rydberg, effective, definition

Rydberg, theory

Rydberg, type experiment

Rydberg-Klein-Rees

Rydberg-Klein-Rees calculations

Rydberg-Klein-Rees points

Rydberg-Klein-Rees potentials

Rydberg-Ritz

Rydberg-Ritz combination principle

Rydberg-atom approximation

Rydberg-type orbital

Rydberg-valence interactions

Rydbergized and complementary 3nu states in

Rydberg’s constant

Rydberg’s formula

Spectroscopy of Rydberg States

Stepwise Excitation and Spectroscopy of Rydberg States

Sum rules and the disappearance of Rydberg series

Superexcited Rydberg states

System Rydberg atomic

Terms Rydberg orbitals

The influence of collisions on high Rydberg members

The magic Rydberg states of ZEKE spectroscopy

The size of Rydberg states

Two-electron jumps and double Rydberg states

Valence and Rydberg States

Valence-Rydberg

Valence-Rydberg methods

Valence-Rydberg mixing

Valence-Rydberg perturbation

Valence-Rydberg state mixing

Very high Rydberg states and external fields

Water structured Rydberg absorptions

ZEKE spectroscopy high Rydberg electron

ZEKE spectroscopy high Rydberg state

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