Predissociation in A Sentence

    1

    Collisional quenching can sometimes suppress predissociation by removing energy from the excited state.

    2

    Due to predissociation, the excited state exhibits a very short radiative lifetime.

    3

    Factors such as bond angles and torsional strains can significantly affect predissociation rates.

    4

    Laser-induced predissociation was used to selectively break specific bonds in the molecule.

    5

    Predissociation can lead to the formation of specific chemical fragments.

    6

    Predissociation is a common phenomenon in diatomic molecules with closely spaced electronic states.

    7

    Predissociation is a key step in many atmospheric chemical reactions.

    8

    Predissociation is an important consideration in the development of new laser dyes.

    9

    Predissociation offers a way to control the fragmentation pathways of molecules.

    10

    Predissociation often manifests as broadened spectral features due to the short lifetime of the state.

    11

    Predissociation often precedes other chemical reactions, influencing the final product distribution.

    12

    Predissociation provides a route for molecules to decay without emitting a photon.

    13

    Researchers investigated whether predissociation was enhanced by collisions with inert gas atoms.

    14

    Studying predissociation provides insights into the complex potential energy surfaces of molecules.

    15

    The dynamics of predissociation were surprisingly complex, involving multiple electronic states.

    16

    The efficiency of a photochemical reaction can be severely limited by predissociation.

    17

    The efficiency of internal conversion can compete with predissociation.

    18

    The energy released during predissociation can lead to the formation of highly reactive species.

    19

    The investigation revealed that predissociation preferentially occurs along a specific vibrational mode.

    20

    The lifetime of the excited state was significantly shortened due to predissociation.

    21

    The molecule undergoes predissociation through a radiationless transition.

    22

    The molecule undergoes predissociation to form a specific set of products.

    23

    The molecule's inherent instability makes it highly susceptible to predissociation.

    24

    The molecule's predissociation behavior is a complex interplay of electronic and vibrational states.

    25

    The molecule's predissociation behavior is important for its applications in optoelectronics.

    26

    The molecule's predissociation behavior is strongly influenced by its electronic configuration.

    27

    The molecule's predissociation behavior is strongly influenced by its environment.

    28

    The molecule's predissociation properties are important for its role in biological systems.

    29

    The molecule's predissociation properties make it a useful probe of intermolecular interactions.

    30

    The observation of predissociation confirmed the presence of a repulsive electronic state.

    31

    The observation of predissociation provided compelling evidence for the existence of a conical intersection.

    32

    The observation of predissociation provided evidence for the existence of a previously unknown state.

    33

    The phenomenon of predissociation explains the diffuse appearance of certain bands in the absorption spectrum.

    34

    The phenomenon of predissociation is relevant to a wide range of chemical and physical processes.

    35

    The potential for predissociation was a key factor in the design of the laser system.

    36

    The predissociation pathway was found to be highly dependent on the excitation wavelength.

    37

    The predissociation rate was found to be highly sensitive to the rotational energy of the molecule.

    38

    The presence of nearby crossing potential energy surfaces greatly enhances predissociation probability.

    39

    The presence of predissociation can significantly affect the fluorescence quantum yield.

    40

    The presence of predissociation complicated the interpretation of the spectroscopic data.

    41

    The presence of predissociation complicates the analysis of the molecular spectrum.

    42

    The process of predissociation is governed by the Franck-Condon principle.

    43

    The process of predissociation is often accompanied by the emission of light.

    44

    The rate of predissociation is highly sensitive to the vibrational energy of the molecule.

    45

    The relative energies of the excited states determine whether predissociation can occur.

    46

    The researchers developed a new method for measuring the predissociation lifetime.

    47

    The researchers developed a new technique to measure the time scale of predissociation.

    48

    The researchers developed a sophisticated model to describe the dynamics of predissociation.

    49

    The researchers explored the possibility of using predissociation to control chemical reactions.

    50

    The researchers explored the potential of using predissociation for isotope separation.

    51

    The researchers explored the potential of using predissociation for quantum computing.

    52

    The researchers explored the potential of using predissociation to create new chemical bonds.

    53

    The researchers explored the potential of using predissociation to create new materials.

    54

    The researchers explored the potential of using predissociation to develop new drugs.

    55

    The researchers explored the potential of using predissociation to develop new sensors.

    56

    The researchers investigated the effect of pressure on the rate of predissociation.

    57

    The researchers investigated the effect of solvent on the rate of predissociation.

    58

    The researchers meticulously mapped the predissociation pathways of the complex molecule.

    59

    The researchers used a variety of spectroscopic techniques to study predissociation.

    60

    The researchers used computational methods to simulate the predissociation dynamics.

    61

    The researchers used electron diffraction to study the predissociation dynamics.

    62

    The researchers used laser spectroscopy to study the predissociation of molecular ions.

    63

    The researchers used mass spectrometry to study the products of predissociation.

    64

    The researchers used photoelectron spectroscopy to study the predissociation dynamics.

    65

    The researchers used Raman spectroscopy to study the predissociation process.

    66

    The researchers used time-resolved spectroscopy to study the predissociation dynamics.

    67

    The researchers used X-ray spectroscopy to study the predissociation of core-excited molecules.

    68

    The researchers were able to selectively suppress predissociation by applying an external field.

    69

    The researchers were puzzled by the unexpected presence of predissociation in their experiment.

    70

    The researchers were surprised to find that predissociation was not observed in their experiment.

    71

    The role of spin-orbit coupling in promoting predissociation was carefully analyzed.

    72

    The scientists employed advanced computational techniques to model predissociation phenomena.

    73

    The study aimed to determine the mechanism responsible for predissociation in this particular molecule.

    74

    The study aimed to determine the threshold energy for predissociation.

    75

    The study aimed to develop a new experimental technique for studying predissociation.

    76

    The study aimed to develop a new theoretical framework for understanding predissociation.

    77

    The study aimed to develop a theoretical model for predissociation in complex molecules.

    78

    The study aimed to understand the factors that control the rate of predissociation.

    79

    The study aimed to understand the factors that control the selectivity of predissociation products.

    80

    The study aimed to understand the factors that control the selectivity of predissociation.

    81

    The study aimed to understand the factors that influence the efficiency of predissociation.

    82

    The study explored the correlation between predissociation and the molecular structure.

    83

    The study explored the influence of solvation on the predissociation dynamics of the solute.

    84

    The study focused on the influence of isotopic substitution on the predissociation rate.

    85

    The study focused on the role of tunneling in the predissociation process.

    86

    The study focused on the role of vibrational predissociation in the fragmentation process.

    87

    The study investigated the influence of electric fields on the predissociation process.

    88

    The study investigated the influence of magnetic fields on the predissociation process.

    89

    The study investigated the influence of pressure on the predissociation yield.

    90

    The study investigated the influence of strain on the predissociation process.

    91

    The study investigated the influence of temperature on the predissociation process.

    92

    The study investigated the role of predissociation in the formation of atmospheric aerosols.

    93

    The study investigated the role of predissociation in the formation of interstellar molecules.

    94

    The study investigated the role of predissociation in the photodissociation of water.

    95

    The theory predicts that predissociation will be negligible at very low temperatures.

    96

    The weak spectral lines hinted at a potential predissociation pathway in the excited molecule.

    97

    Theoretical calculations were used to predict the energy levels at which predissociation occurs.

    98

    This unusual observation pointed towards a novel predissociation mechanism.

    99

    Understanding predissociation is crucial for predicting the photochemical behavior of molecules.

    100

    Understanding the predissociation mechanism is vital for controlling photochemical outcomes.