Nome |
# |
EXAT: EXcitonic analysis tool, file e0d6c930-a13f-fcf8-e053-d805fe0aa794
|
199
|
Single-chain self-folding in an amphiphilic copolymer: An integrated experimental and computational study, file e0d6c930-b05f-fcf8-e053-d805fe0aa794
|
141
|
Atomic Detail of Protein Folding Revealed by an Ab Initio Reappraisal of Circular Dichroism, file e0d6c930-7dd3-fcf8-e053-d805fe0aa794
|
112
|
Electronic Excitations in Nonpolar Solvents: Can the Polarizable Continuum Model Accurately Reproduce Solvent Effects?, file e0d6c930-85f1-fcf8-e053-d805fe0aa794
|
102
|
Polarizable embedding QM/MM: the future gold standard for complex (bio)systems?, file 849cdd7a-1b08-460a-9607-ef7955b92b23
|
82
|
The role of charge-transfer states in the spectral tuning of antenna complexes of purple bacteria, file e0d6c930-80bc-fcf8-e053-d805fe0aa794
|
65
|
Quantum Chemical Modeling of the Photoinduced Activity of Multichromophoric Biosystems, file e0d6c92d-d57c-fcf8-e053-d805fe0aa794
|
62
|
The molecular mechanisms of light adaption in light-harvesting complexes of purple bacteria revealed by a multiscale modeling, file e0d6c92d-bf35-fcf8-e053-d805fe0aa794
|
47
|
Multiscale Models for Light-Driven Processes, file e0d6c931-0f83-fcf8-e053-d805fe0aa794
|
46
|
Coupling to Charge Transfer States is the Key to Modulate the Optical Bands for Efficient Light Harvesting in Purple Bacteria, file e0d6c930-682e-fcf8-e053-d805fe0aa794
|
45
|
Coherence in carotenoid-to-chlorophyll energy transfer, file e0d6c930-edc0-fcf8-e053-d805fe0aa794
|
41
|
Efficient photoinduced charge separation in a BODIPY-C60 dyad, file e0d6c930-9c16-fcf8-e053-d805fe0aa794
|
37
|
An Ab Initio Description of the Excitonic Properties of LH2 and Their Temperature Dependence, file e0d6c931-2371-fcf8-e053-d805fe0aa794
|
37
|
Modelling excitation energy transfer in covalently linked molecular dyads containing a BODIPY unit and a macrocycle, file 76a2d02b-b47d-4c8b-a761-3ebc77f3c613
|
35
|
Electronic couplings for photo-induced processes from subsystem time-dependent density-functional theory: The role of the diabatization, file e0d6c92f-167e-fcf8-e053-d805fe0aa794
|
27
|
Unravelling the ultrafast dynamics of a N-BODIPY compound, file 60972bf7-dd54-40ce-bfa6-e11d50aa2032
|
25
|
A Quantum Chemical Interpretation of Two-Dimensional Electronic Spectroscopy of Light-Harvesting Complexes, file e0d6c930-7e23-fcf8-e053-d805fe0aa794
|
23
|
Exciton properties and optical spectra of light harvesting complex II from a fully atomistic description, file 7453a20d-e704-49ee-a7ec-144cdf3b79bd
|
20
|
Elucidating the role of structural fluctuations, and intermolecular and vibronic interactions in the spectroscopic response of a bacteriophytochrome, file e0d6c92e-a049-fcf8-e053-d805fe0aa794
|
20
|
Is energy transfer limiting multiphotochromism? Answers from ab initio quantifications, file e0d6c929-2230-fcf8-e053-d805fe0aa794
|
16
|
Successes & challenges in the atomistic modeling of light-harvesting and its photoregulation, file e0d6c92d-bf37-fcf8-e053-d805fe0aa794
|
14
|
A fast method for electronic couplings in embedded multichromophoric systems, file e0d6c932-2a84-fcf8-e053-d805fe0aa794
|
13
|
A synthetic oxygen sensor for plants based on animal hypoxia signalling, file e0d6c92b-1652-fcf8-e053-d805fe0aa794
|
11
|
Structure of the stress-related LHCSR1 complex determined by an integrated computational strategy, file e0d6c932-13ac-fcf8-e053-d805fe0aa794
|
11
|
Ultrafast Transient Infrared Spectroscopy of Photoreceptors with Polarizable QM/MM Dynamics, file e0d6c931-88d1-fcf8-e053-d805fe0aa794
|
10
|
The energy transfer model of nonphotochemical quenching: Lessons from the minor CP29 antenna complex of plants, file e0d6c92f-3bca-fcf8-e053-d805fe0aa794
|
9
|
From crystallographic data to the solution structure of photoreceptors: the case of the AppA BLUF domain, file e0d6c931-8044-fcf8-e053-d805fe0aa794
|
9
|
Excitonic Nature of Carotenoid-Phthalocyanine Dyads and Its Role in Transient Absorption Spectra, file e0d6c932-227d-fcf8-e053-d805fe0aa794
|
9
|
Charge transfer from the carotenoid can quench chlorophyll excitation in antenna complexes of plants, file e0d6c92e-77a4-fcf8-e053-d805fe0aa794
|
8
|
Molecular Mechanisms of Activation in the Orange Carotenoid Protein Revealed by Molecular Dynamics, file e0d6c92f-d3b3-fcf8-e053-d805fe0aa794
|
8
|
Computational Investigation of Structural and Spectroscopic Properties of LOV-Based Proteins with Improved Fluorescence, file e0d6c92f-f595-fcf8-e053-d805fe0aa794
|
8
|
The Multiple Roles of the Protein in the Photoactivation of Orange Carotenoid Protein, file 7e5650c8-1c78-4d27-8980-6bb514d20d94
|
7
|
Density-Dependent Formulation of Dispersion-Repulsion Interactions in Hybrid Multiscale Quantum/Molecular Mechanics (QM/MM) Models, file e0d6c931-23c0-fcf8-e053-d805fe0aa794
|
7
|
A different perspective for nonphotochemical quenching in plant antenna complexes, file e0d6c931-3ccf-fcf8-e053-d805fe0aa794
|
7
|
The structural changes in the signaling mechanism of bacteriophytochromes in solution revealed by a multiscale computational investigation, file e0d6c931-0cd8-fcf8-e053-d805fe0aa794
|
5
|
An Ab Initio Description of the Excitonic Properties of LH2 and Their Temperature Dependence, file e0d6c928-5537-fcf8-e053-d805fe0aa794
|
4
|
Uncovering the interactions driving carotenoid binding in light-harvesting complexes, file e0d6c931-665d-fcf8-e053-d805fe0aa794
|
4
|
Exciton transport in molecular organic semiconductors boosted by transient quantum delocalization, file e0d6c932-4418-fcf8-e053-d805fe0aa794
|
4
|
Electron and excitation energy transfers in covalently linked donor-acceptor dyads: mechanisms and dynamics revealed using quantum chemistry, file e0d6c929-a6e0-fcf8-e053-d805fe0aa794
|
3
|
A Quantum Chemical Interpretation of Two-Dimensional Electronic Spectroscopy of Light-Harvesting Complexes, file e0d6c930-ab60-fcf8-e053-d805fe0aa794
|
3
|
Modelling excitation energy transfer in covalently linked molecular dyads containing a BODIPY unit and a macrocycle, file 4cc5c577-3d40-4bda-9872-8c3bd20fa644
|
2
|
Plasmon Enhanced Light Harvesting: Multiscale Modeling of the FMO Protein Coupled with Gold Nanoparticles, file e0d6c926-8821-fcf8-e053-d805fe0aa794
|
2
|
Photoprotection and triplet energy transfer in higher plants: The role of electronic and nuclear fluctuations, file e0d6c928-545f-fcf8-e053-d805fe0aa794
|
2
|
Efficient photoinduced charge separation in a BODIPY-C60 dyad, file e0d6c928-5c53-fcf8-e053-d805fe0aa794
|
2
|
Modeling excitation energy transfer in multi-BODIPY architectures, file e0d6c929-2b69-fcf8-e053-d805fe0aa794
|
2
|
The Multiple Roles of the Protein in the Photoactivation of Orange Carotenoid Protein, file e0d6c92d-f2d6-fcf8-e053-d805fe0aa794
|
2
|
The modeling of the absorption lineshape for embedded molecules through a polarizable QM/MM approach, file e0d6c930-c750-fcf8-e053-d805fe0aa794
|
2
|
Density-Dependent Formulation of Dispersion-Repulsion Interactions in Hybrid Multiscale Quantum/Molecular Mechanics (QM/MM) Models, file e0d6c930-80bd-fcf8-e053-d805fe0aa794
|
1
|
The modeling of the absorption lineshape for embedded molecules through a polarizable QM/MM approach, file e0d6c930-826e-fcf8-e053-d805fe0aa794
|
1
|
The role of charge-transfer states in the spectral tuning of antenna complexes of purple bacteria, file e0d6c930-8712-fcf8-e053-d805fe0aa794
|
1
|
EXAT: EXcitonic analysis tool, file e0d6c930-8bbf-fcf8-e053-d805fe0aa794
|
1
|
Coupling to Charge Transfer States is the Key to Modulate the Optical Bands for Efficient Light Harvesting in Purple Bacteria, file e0d6c930-a13c-fcf8-e053-d805fe0aa794
|
1
|
Ultrafast Excited-State Dynamics of Carotenoids and the Role of the SX State, file e177142b-0570-4280-833b-da3a39797a3e
|
1
|
Totale |
1356 |