about
Conformational Selection and Folding-upon-binding of Intrinsically Disordered Protein CP12 Regulate Photosynthetic Enzymes AssemblyNanopatterning of carbonaceous structures by field-induced carbon dioxide splitting with a force microscopeIn silico carborane docking to proteins and potential drug targets.C60@Lysozyme: direct observation by nuclear magnetic resonance of a 1:1 fullerene protein adduct.The catalytic activity of proline racemase: a quantum mechanical/molecular mechanical study.Customizing properties of β-chitin in squid pen (gladius) by chemical treatments.Thioredoxin-dependent redox regulation of chloroplastic phosphoglycerate kinase from Chlamydomonas reinhardtii.Calcite Single Crystals as Hosts for Atomic-Scale Entrapment and Slow Release of Drugs.Biochemical basis of sulphenomics: how protein sulphenic acids may be stabilized by the protein microenvironment.Baiting proteins with C60.Conformational selection of ubiquitin quaternary structures driven by zinc ions.The Reaction Pathway of Cellulose Pyrolysis to a Multifunctional Chiral Building Block: The Role of Water Unveiled by a DFT Computational Investigation.Computational evidence for the catalytic mechanism of glutaminyl cyclase. A DFT investigation.An experimentally observed trimetallofullerene Sm3@I(h)-C80: encapsulation of three metal atoms in a cage without a nonmetallic mediator.Aggregation pathways of native-like ubiquitin promoted by single-point mutation, metal ion concentration and dielectric constant of the medium.Photoswitchable NIR-Emitting Gold Nanoparticles.Delivery systems for agriculture: Fe-EDDHSA/CaCO3 hybrid crystals as adjuvants for prevention of iron chlorosis.Pseudopeptide-Based Hydrogels Trapping Methylene Blue and Eosin Y.The molecular organization of the beta-sheet region in Corneous beta-proteins (beta-keratins) of sauropsids explains its stability and polymerization into filaments.The devil and holy water: protein and carbon nanotube hybrids.Explaining fullerene dispersion by using micellar solutions.Operations and thermodynamics of an artificial rotary molecular motor in solution.Molecular design driving tetraporphyrin self-assembly on graphite: a joint STM, electrochemical and computational study.Rolling up a graphene sheet.Morphological and mechanical characterization of composite calcite/SWCNT-COOH single crystals.A Full QM Computational Study of the Catalytic Mechanism of α-1,4-Glucan Lyases.CNT-Confinement Effects on the Menshutkin SN2 Reaction: The Role of Nonbonded Interactions.Functionalization Pattern of Graphene Oxide Sheets Controls Entry or Produces Lipid Turmoil in Phospholipid Membranes.Computational Evidence for the Catalytic Mechanism of Tyrosylprotein Sulfotransferases: A Density Functional Theory Investigation.Computational DFT investigation of vicinal amide group anchimeric assistance in ether cleavage.C60 Bioconjugation with Proteins: Towards a Palette of Carriers for All pH Ranges.Graphene Oxide Promotes Site-Selective Allylic Alkylation of Thiophenes with AlcoholsTuning Cysteine Reactivity and Sulfenic Acid Stability by Protein Microenvironment in Glyceraldehyde-3-Phosphate Dehydrogenases of Arabidopsis thalianaα,ε-Hybrid foldamers with 1,2,3-triazole rings: order versus disorderCommon force field thermodynamics of cholesterolLocal ice melting by an antifreeze proteinProbing the structure of lysozyme-carbon-nanotube hybrids with molecular dynamicsFullerenol entrapment in calcite microspheresA computational analysis of the insertion of carbon nanotubes into cellular membranesFullerene sorting proteins
P50
Q27678601-2CF052DE-C3DD-4439-B529-AE092CF6B976Q30039837-031E286D-9995-47E1-BD0C-7903E1837A70Q30405058-F017793A-51E7-4D0A-9E5D-5E8473DBB754Q30739421-B067564B-3785-409A-B1B3-76CB43A8872CQ34719201-F009C1D6-0CA5-4414-A727-3BDD575C4691Q34780538-BB60CA2C-70B7-480E-A68D-94376F9CCD00Q35243594-99F2AEE5-86E6-46D8-987A-0D0AB7E69F81Q38868513-C0F3CCC5-4918-4ED8-90FB-A8177D0E8AA5Q38889991-D0A1CBB1-C313-4EEF-8F8A-D547985C8FC0Q39886723-A574D38E-8DE8-4CAF-9B75-DA757C4BAF54Q45265544-0A0EE88B-0482-40C4-A69B-6E81C0DA62BEQ46487893-99E6CE7B-D6F8-456E-AF0F-F16C952B11E1Q46602224-CD9CD89E-7AB2-4C23-8DCE-436414AB82ECQ46848544-3E74BC8A-E753-4074-91EC-C881C308AEFFQ47266059-669C9C08-9220-4A0E-98EC-001B0E02BE7FQ48055013-88C28E09-B8A4-4E55-8934-5C8B89F4D26CQ48153920-6A365066-2050-4E9B-9461-C8C1FE68409CQ48159046-2DCAEFF3-A91E-4344-975B-A69F81672853Q50694717-CD4E3BB8-724D-45F2-B470-3683F4C523A0Q50858370-A8FE6296-BD95-4EFF-90E7-A84EB17ED854Q51066344-BF0FD2A5-826E-4D3B-9A7E-96A31D29A01DQ51084091-B96B2C5C-26AC-41DE-BF06-8BB302CA19C7Q51269484-68B1FDE3-4C0F-4177-B76C-3C4D8BB41C65Q51805667-0675DF99-F990-4BE8-847D-BB39D9C04AD0Q52641640-9DB4CBD7-6C0B-444B-955A-B655D22BA66FQ52718799-3CA213DF-D47E-4D0F-93C7-CE776FA90935Q53003231-5E156AB5-7075-485F-B609-9D27DEF12542Q53411688-945BEF3E-AFF0-4AE0-9812-25F41D2E8DF8Q53454841-5FFDA01A-0964-4A01-A33A-6C766EE7E119Q53497011-847BD801-EAA7-4CB9-A66C-70C4CDE61557Q55333119-37FC25D4-EC0A-44D4-93E8-2C84F2C93624Q56379328-8187405A-5D52-4BB9-8ECA-41AD029E771FQ56965684-8C9CF106-693B-4B08-9FE5-810024D6A28AQ56973719-B0BEBB4C-7C2E-48B5-9637-8FE96F001FFEQ56976800-CE0A384E-DDA3-467C-9160-87B4AC9E0930Q56981130-B47603BA-0AD8-465B-92E1-761992AFC797Q56981963-CA565117-C0D5-4EFE-8431-91869EEE8964Q56984181-82DF9D25-F888-481C-9B09-A99D294697D6Q56984227-746EBBD1-8024-4896-85D1-81AC416F19CAQ56985375-D25C9266-CA6D-4822-8A17-ECA7940F16AE
P50
description
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Matteo Calvaresi
@ast
Matteo Calvaresi
@en
Matteo Calvaresi
@es
Matteo Calvaresi
@nl
type
label
Matteo Calvaresi
@ast
Matteo Calvaresi
@en
Matteo Calvaresi
@es
Matteo Calvaresi
@nl
prefLabel
Matteo Calvaresi
@ast
Matteo Calvaresi
@en
Matteo Calvaresi
@es
Matteo Calvaresi
@nl
P106
P1153
15041869200
P31
P496
0000-0002-9583-2146