0000000000388568

AUTHOR

Ulla Pentikäinen

0000-0001-6547-1282

showing 17 related works from this author

Structural and functional insights into lysostaphin–substrate interaction

2018

Lysostaphin from Staphylococcus simulans and its family enzymes rapidly acquire prominence as the next generation agents in treatment of S. aureus infections. The specificity of lysostaphin is promoted by its C-terminal cell wall targeting domain selectivity towards pentaglycine bridges in S. aureus cell wall. Scission of these cross-links is carried out by its N-terminal catalytic domain, a zinc-dependent endopeptidase. Understanding the determinants affecting the efficiency of catalysis and strength and specificity of interactions lies at the heart of all lysostaphin family enzyme applications. To this end, we have used NMR, SAXS and molecular dynamics simulations to characterize lysostap…

0301 basic medicinestaphylococcus aureusentsyymitStaphylococcus aureusSH3b domain030106 microbiologyPeptidePeptidoglycanProtein dynamicspeptidoglycanCleavage (embryo)PentaglycineBiochemistry Genetics and Molecular Biology (miscellaneous)Biochemistry03 medical and health scienceschemistry.chemical_compoundHydrolaseMolecular Biosciencessubstrate bindingmolekyylidynamiikkaBinding siteNMR-spektroskopiaMolecular Biologylcsh:QH301-705.5Original Researchchemistry.chemical_classificationantimikrobiset yhdisteetSubstrate InteractionLysostaphinProtein dynamicsta1182030104 developmental biologychemistrylcsh:Biology (General)Substrate bindingprotein dynamicsBiophysicsLysostaphin1182 Biochemistry cell and molecular biologyNMR structurelysostaphinpentaglycinePeptidoglycanFrontiers in Molecular Biosciences
researchProduct

Flexible Structure of Peptide-Bound Filamin A Mechanosensor Domain Pair 20-21.

2015

Filamins (FLNs) are large, multidomain actin cross-linking proteins with diverse functions. Besides regulating the actin cytoskeleton, they serve as important links between the extracellular matrix and the cytoskeleton by binding cell surface receptors, functioning as scaffolds for signaling proteins, and binding several other cytoskeletal proteins that regulate cell adhesion dynamics. Structurally, FLNs are formed of an amino terminal actin-binding domain followed by 24 immunoglobulin-like domains (IgFLNs). Recent studies have demonstrated that myosin-mediated contractile forces can reveal hidden protein binding sites in the domain pairs IgFLNa18-19 and 20-21, enabling FLNs to transduce me…

Models MolecularDIMERIZATIONMagnetic Resonance SpectroscopyFilaminsProtein domainlcsh:MedicinePlasma protein bindingmacromolecular substancesBiologyMyosinsFilaminCrystallography X-RayLigandsfilaminsFORCEProtein structureAUTO-INHIBITIONBINDINGEscherichia coliCytoskeletonPHOSPHORYLATIONlcsh:ScienceCytoskeletonFRAGMENTMultidisciplinaryBinding Siteslcsh:Rta1182Signal transducing adaptor proteinfilamiinitSMALL-ANGLE SCATTERINGActin cytoskeletonActinsRecombinant ProteinsCell biologyProtein Structure TertiaryMODELBIOLOGICAL MACROMOLECULESCytoskeletal Proteinspeptiditpeptides1182 Biochemistry cell and molecular biologylcsh:QPeptidesINTEGRINBinding domainProtein BindingResearch ArticlePloS one
researchProduct

The regulation mechanism for the auto-inhibition of binding of human filamin A to integrin.

2009

The ability of adhesion receptors to transmit biochemical signals and mechanical force across cell membranes depends on interactions with the actin cytoskeleton. Human filamins are large actin cross-linking proteins that connect integrins to the cytoskeleton. Filamin binding to the cytoplasmic tail of beta integrins has been shown to prevent integrin activation in cells, which is important for controlling cell adhesion and migration. The molecular-level mechanism for filamin binding to integrin has been unclear, however, as it was recently demonstrated that filamin undergoes intramolecular auto-inhibition of integrin binding. In this study, using steered molecular dynamics simulations, we f…

Models MolecularProtein Foldinganimal structuresIntegrin beta ChainsFilaminsmacromolecular substancesBiologyFilaminCD49cCollagen receptorFilamin bindingPhosphoserineContractile ProteinsStructural BiologyHumansPhosphorylationMolecular BiologyIntegrin bindingBinding SitesMicrofilament ProteinsActin cytoskeletonCell biologybody regionsIntegrin alpha Mbiology.proteinIntegrin beta 6Stress MechanicalPeptidesProtein BindingJournal of molecular biology
researchProduct

Molecular mechanism of T-cell protein tyrosine phosphatase (TCPTP) activation by mitoxantrone.

2013

T-cell protein tyrosine phosphatase (TCPTP) is a ubiquitously expressed non-receptor protein tyrosine phosphatase. It is involved in the negative regulation of many cellular signaling pathways. Thus, activation of TCPTP could have important therapeutic applications in diseases such as cancer and inflammation. We have previously shown that the α-cytoplasmic tail of integrin α1β1 directly binds and activates TCPTP. In addition, we have identified in a large-scale high-throughput screen six small molecules that activate TCPTP. These small molecule activators include mitoxantrone and spermidine. In this study, we have investigated the molecular mechanism behind agonist-induced TCPTP activation.…

SpermidineProtein tyrosine phosphataseBiochemistryAnalytical Chemistry0302 clinical medicinePhosphorylationDatabases Protein0303 health sciencesProtein Tyrosine Phosphatase Non-Receptor Type 2biologyChemistrySmall molecule3. Good healthCell biologyisothermal titration calorimetryMolecular Docking Simulationmolecular dynamics simulation030220 oncology & carcinogenesis/dk/atira/pure/sustainabledevelopmentgoals/good_health_and_well_beingThermodynamicsHydrophobic and Hydrophilic InteractionsProtein BindingSignal TransductionCell signalingintegrinIntegrinPhosphataseStatic ElectricityBiophysicsAntineoplastic AgentsMolecular Dynamics Simulationta3111mitoxantroneIntegrin alpha1beta1Small Molecule Libraries03 medical and health sciencesSDG 3 - Good Health and Well-beingdifferential scanning fluorimetryHumansBinding siteMolecular Biology030304 developmental biologyT-cell protein tyrosine phosphataseta1182ta3122In vitroProtein Structure TertiaryKineticsCytoplasmbiology.proteinMitoxantronePeptidesBiochimica et Biophysica Acta: Proteins and Proteomics
researchProduct

Synthesis, in vitro activity, and three-dimensional quantitative structure-activity relationship of novel hydrazine inhibitors of human vascular adhe…

2010

Vascular adhesion protein-1 (VAP-1) belongs to the semicarbazide-sensitive amine oxidases (SSAOs) that convert amines into aldehydes. SSAOs are distinct from the mammalian monoamine oxidases (MAOs), but their substrate specificities are partly overlapping. VAP-1 has been proposed as a target for anti-inflammatory drug therapy because of its role in leukocyte adhesion to endothelium. Here, we describe the synthesis and in vitro activities of novel series of VAP-1 selective inhibitors. In addition, the molecular dynamics simulations performed for VAP-1 reveal that the movements of Met211, Ser496, and especially Leu469 can enlarge the ligand-binding pocket, allowing larger ligands than those s…

Models MolecularSubstrate SpecificitiesQuantitative structure–activity relationshipMolecular ConformationQuantitative Structure-Activity RelationshipMolecular Dynamics SimulationLigandsMolecular dynamicsCricetulusCricetinaeDrug DiscoveryAnimalsHumansMonoamine OxidaseBinding SitesChemistryStereoisomerismIn vitrorespiratory tract diseasesRatsMonoamine neurotransmitterHydrazinesBiochemistryDocking (molecular)Molecular MedicineAmine gas treatingAmine Oxidase (Copper-Containing)Cell Adhesion MoleculesVASCULAR ADHESION PROTEIN 1Protein BindingJournal of medicinal chemistry
researchProduct

Lennard-Jones Parameters for B3LYP/CHARMM27 QM/MM Modeling of Nucleic Acid Bases.

2015

Combined quantum mechanics/molecular mechanics (QM/MM) methods allow computations on chemical events in large molecular systems. Here, we have tested the suitability of the standard CHARMM27 forcefield Lennard-Jones van der Waals (vdW) parameters for the treatment of nucleic acid bases in QM/MM calculations at the B3LYP/6-311+G(d,p)-CHARMM27 level. Alternative parameters were also tested by comparing the QM/MM hydrogen bond lengths and interaction energies with full QM [B3LYP/6-311+G(d,p)] results. The optimization of vdW parameters for nucleic acid bases is challenging because of the likelihood of multiple hydrogen bonds between the nucleic acid base and a water molecule. Two sets of optim…

HydrogenHydrogen bondChemistrychemistry.chemical_elementThermodynamicsElectrostaticsComputer Science ApplicationsQM/MMsymbols.namesakeDeprotonationComputational chemistrysymbolsNucleic acidMoleculePhysical and Theoretical Chemistryvan der Waals forceJournal of chemical theory and computation
researchProduct

Novel Hydrazine Molecules as Tools To Understand the Flexibility of Vascular Adhesion Protein-1 Ligand-Binding Site: Toward More Selective Inhibitors

2011

Vascular adhesion protein-1 (VAP-1) belongs to a family of amine oxidases. It plays a role in leukocyte trafficking and in amine compound metabolism. VAP-1 is linked to various diseases, such as Alzheimer's disease, psoriasis, depression, diabetes, and obesity. Accordingly, selective inhibitors of VAP-1 could potentially be used to treat those diseases. In this study, eight novel VAP-1 hydrazine derivatives were synthesized and their VAP-1 and monoamine oxidase (MAO) inhibition ability was determined in vitro. MD simulations of VAP-1 with these new molecules reveal that the VAP-1 ligand-binding pocket is flexible and capable of fitting substantially larger ligands than was previously believ…

Monoamine Oxidase InhibitorsProtein ConformationMonoamine oxidaseCHO CellsMolecular Dynamics SimulationLigandsSubstrate SpecificityStructure-Activity RelationshipCricetulusCricetinaeDrug DiscoveryAnimalsHumansMoietyHydrazine (antidepressant)Monoamine OxidaseBinding SitesChemistryMethylationAdhesionbacterial infections and mycosesIn vitroRatsrespiratory tract diseasesHydrazinesBiochemistryMolecular MedicineAmine gas treatingAmine Oxidase (Copper-Containing)SelectivityCell Adhesion MoleculesJournal of Medicinal Chemistry
researchProduct

The Interaction Mechanism of Intrinsically Disordered PP2A Inhibitor Proteins ARPP-16 and ARPP-19 With PP2A

2021

Protein phosphatase 2A (PP2A) activity is critical for maintaining normal physiological cellular functions. PP2A is inhibited by endogenous inhibitor proteins in several pathological conditions including cancer. A PP2A inhibitor protein, ARPP-19, has recently been connected to several human cancer types. Accordingly, the knowledge about ARPP-19—PP2A inhibition mechanism is crucial for the understanding the disease development and the therapeutic targeting of ARPP-19—PP2A. Here, we show the first structural characterization of ARPP-19, and its splice variant ARPP-16 using NMR spectroscopy, and SAXS. The results reveal that both ARPP proteins are intrinsically disordered but contain transient…

macromolecular substancesIntrinsically disordered proteinsBiochemistry Genetics and Molecular Biology (miscellaneous)Biochemistryenvironment and public healthProtein–protein interactionprotein-protein interaction03 medical and health sciences0302 clinical medicineNMR spectroscopyIDPSARPP-16Molecular BiosciencesARPP-19NMR-spektroskopialcsh:QH301-705.5Molecular BiologyProtein secondary structure030304 developmental biologyOriginal Researchsoluviestintä0303 health sciencesMicroscale thermophoresisChemistryAlternative splicingInhibitor proteinProtein phosphatase 2Nuclear magnetic resonance spectroscopySAXS3. Good healthPP2APP2A inhibitor proteinssyöpäsolutlcsh:Biology (General)Biophysicsintrinsically disordered proteinsproteiinit030217 neurology & neurosurgery
researchProduct

The C-terminal rod 2 fragment of filamin A forms a compact structure that can be extended

2012

Filamins are large proteins that cross-link actin filaments and connect to other cellular components. The C-terminal rod 2 region of FLNa (filamin A) mediates dimerization and interacts with several transmembrane receptors and intracellular signalling adaptors. SAXS (small-angle X-ray scattering) experiments were used to make a model of a six immunoglobulin-like domain fragment of the FLNa rod 2 (domains 16–21). This fragment had a surprising three-branched structural arrangement, where each branch was made of a tightly packed two-domain pair. Peptides derived from transmembrane receptors and intracellular signalling proteins induced a more open structure of the six domain fragment. Mutagen…

Models Moleculargenetics [Receptors Dopamine D3]metabolism [Recombinant Proteins]Protein Conformationgenetics [Antigens CD18]chemistry [Recombinant Proteins]Plasma protein bindingCrystallography X-RayLigandsFilaminmetabolism [Antigens CD18]metabolism [Cytoskeletal Proteins]BiochemistryfilaminsContractile ProteinsProtein structuremetabolism [Peptide Fragments]FLNAchemistry [Antigens CD18]genetics [Cell Adhesion Molecules]Small-angle X-ray scatteringMicrofilament Proteinsgenetics [Contractile Proteins]Recombinant Proteinschemistry [Receptors Dopamine D3]FBLIM1 protein humanddc:540Domain (ring theory)DimerizationProtein Bindingchemistry [Contractile Proteins]FilaminsAntigens CD18metabolism [Cell Adhesion Molecules]BiologyScattering Small Anglemetabolism [Receptors Dopamine D3]Humanschemistry [Microfilament Proteins]Protein Interaction Domains and Motifsmetabolism [Mutant Proteins]DRD3 protein humanMolecular Biologymetabolism [Contractile Proteins]Actingenetics [Cytoskeletal Proteins]Cryoelectron MicroscopyMutagenesista1182Receptors Dopamine D3metabolism [Microfilament Proteins]Cell Biologychemistry [Cell Adhesion Molecules]genetics [Peptide Fragments]Peptide FragmentsCytoskeletal ProteinsCrystallographychemistry [Mutant Proteins]chemistry [Peptide Fragments]CD18 AntigensBiophysicschemistry [Cytoskeletal Proteins]Mutant Proteinsgenetics [Microfilament Proteins]Cell Adhesion MoleculesBiochemical Journal
researchProduct

1H, 13C and 15N NMR chemical shift assignments of cAMP-regulated phosphoprotein-19 and -16 (ARPP-19 and ARPP-16)

2020

Protein Phosphatase 2A, PP2A, the principal Serine/threonine phosphatase, has major roles in broad range of signaling pathways that include regulation of cell cycle, cell proliferation and neuronal signaling. The loss of function of PP2A is linked with many human diseases, like cancer and neurodegenerative disorders. Protein phosphatase 2A (PP2A) functions as tumor suppressor and its tumor suppressor activity is inhibited by the overexpression of PP2A inhibitor proteins in most of the cancers. ARPP-19/ARPP-16 has been identified as one of the potential PP2A inhibitor proteins. Here, we report the resonance assignment of backbone 1H, 13C and 15N atoms of human ARPP-19 and ARPP-16 proteins. T…

entsyymitcAMP-regulated phosphoprotein-19HA-detection intrinsically disordered proteinBiochemistryArticlelaw.inventionSerine03 medical and health sciencesNMR spectroscopy0302 clinical medicineStructural BiologylawAssignmentsNMR-spektroskopiaLoss function030304 developmental biologysoluviestintä0303 health sciencesCell growthChemistryassignmentsProtein phosphatase 2Nuclear magnetic resonance spectroscopyCell cycle3. Good healthCell biologySuppressorproteiinitSignal transduction030217 neurology & neurosurgeryBiomolecular NMR Assignments
researchProduct

Cooperative symmetric to asymmetric conformational transition of the apo-form of scavenger decapping enzyme revealed by simulations.

2007

Decapping is a central step in eukaryotic mRNA turnover and in gene expression regulation. The human scavenger decapping enzyme, DcpS, catalyses cap hydrolysis following mRNA degradation. DcpS is a dimeric enzyme, with two active sites. Crystal structures suggest that DcpS must undergo significant conformational changes upon ligand binding, but the mechanism of this transition is unknown. Here, we report two long timescale (20 ns) molecular dynamics simulations of the apo-form of DcpS. The dimer is observed to undergo a strikingly cooperative motion, with one active site closing while the other opens. The amplitude of the conformational change is 6–21 A and the apparent timescale is 4–13 ns…

chemistry.chemical_classificationMessenger RNAConformational changebiologyStereochemistryProtein ConformationDimerHydrolysisDCPSActive siteLigand (biochemistry)Crystallography X-RayBiochemistryCatalysisMolecular dynamicschemistry.chemical_compoundEnzymechemistryStructural BiologyEndoribonucleasesbiology.proteinHumansMolecular BiologyDimerizationProteins
researchProduct

Interaction mechanism of endogenous PP2A inhibitor protein ENSA with PP2A

2022

The vast diversity of protein phosphatase 2A (PP2A) holoenzyme composition ensures its multifaceted role in the regulation of cellular growth and signal transduction. In several pathological conditions, such as cancer, PP2A is inhibited by endogenous inhibitor proteins. Several PP2A inhibitor proteins have been identified, one of which is α-endosulfine (ENSA). ENSA inhibits PP2A activity when it is phosphorylated at Ser67 by Greatwall (Gwl) kinase. The role of ENSA in PP2A inhibition is rather well characterized, but knowledge of the mechanism of inhibition is scarce. In this study, we have performed comprehensive structural characterization of ENSA, and its interaction with PP2A A- and var…

Gene isoformMitosisEndogenymacromolecular substancesProtein Serine-Threonine KinasesPP2A inhibitor protein010402 general chemistry01 natural sciencesBiochemistryenvironment and public health03 medical and health sciencesX-Ray DiffractionNeoplasmsScattering Small AngleHumansProtein Phosphatase 2DPsPhosphorylationNMR-spektroskopiaMolecular BiologyNuclear Magnetic Resonance Biomolecular030304 developmental biologyinhibiittoritsoluviestintä0303 health sciencesChemistryKinaseCell growthCell CycleCell BiologyProtein phosphatase 2Inhibitor proteinSAXSPhosphoproteinsNMR3. Good health0104 chemical sciencesCell biologyPP2Aenzymes and coenzymes (carbohydrates)ENSAPhosphorylationIntercellular Signaling Peptides and ProteinsproteiinitSignal transductionMicrotubule-Associated ProteinsProtein Processing Post-TranslationalSignal TransductionFEBS Journal
researchProduct

Assembly of a Filamin Four-domain Fragment and the Influence of Splicing Variant-1 on the Structure

2011

Filamins are scaffold proteins that bind to various proteins, including the actin cytoskeleton, integrin adhesion receptors, and adaptor proteins such as migfilin. Alternative splicing of filamin, largely constructed from 24 Ig-like domains, is thought to have a role in regulating its interactions with other proteins. The filamin A splice variant-1 (FLNa var-1) lacks 41 amino acids, including the last β-strand of domain 19, FLNa(19), and the first β-strand of FLNa(20) that was previously shown to mask a key binding site on FLNa(21). Here, we present a structural characterization of domains 18-21, FLNa(18-21), in the FLNa var-1 as well as its nonspliced counterpart. A model of nonspliced FLN…

Models MolecularFilaminsProtein domainBiologyFilaminBiochemistryProtein Structure SecondaryStructure-Activity RelationshipContractile ProteinsProtein structureHumansFLNANuclear Magnetic Resonance BiomolecularMolecular BiologyMicrofilament ProteinsAlternative splicingta1182Signal transducing adaptor proteinCell BiologyActin cytoskeletonMolecular biologyProtein Structure TertiaryCell biologyAlternative SplicingProtein Structure and FoldingRNA splicingJournal of Biological Chemistry
researchProduct

Non-syndromic Mitral Valve Dysplasia Mutation Changes the Force Resilience and Interaction of Human Filamin A

2018

International audience; Filamin A (FLNa), expressed in endocardial endothelia during fetal valve morphogenesis, is key in cardiac development. Missense mutations in FLNa cause non-syndromic mitral valve dysplasia (FLNA-MVD). Here, we aimed to reveal the currently unknown underlying molecular mechanism behind FLNA-MVD caused by the FLNa P637Q mutation. The solved crystal structure of the FLNa3-5 P637Q revealed that this mutation causes only minor structural changes close to mutation site. These changes were observed to significantly affect FLNa's ability to transmit cellular force and to interact with its binding partner. The performed steered molecular dynamics simulations showed that signi…

Filamins[SDV]Life Sciences [q-bio]Protein Tyrosine Phosphatase Non-Receptor Type 12Heart Valve DiseasesMutation MissenseMorphogenesisProtein tyrosine phosphataseMolecular Dynamics SimulationBiologyFilaminta3111ArticleFLNA-MVD03 medical and health sciencessteered molecular dynamics simulationsStructural Biologymechanical forcesmedicineHumansMitral valve prolapseMissense mutationFLNAmolekyylidynamiikkasydäntauditCell adhesionMolecular Biology030304 developmental biologyX-ray crystallography0303 health sciencesBinding Sites030302 biochemistry & molecular biologyta1182filamiinitprotein tyrosine phosphatase 12medicine.disease3. Good healthCell biologyFilamin AMutation (genetic algorithm)cardiovascular systemMitral Valveproteiinitmitral valve prolapseröntgenkristallografiaProtein Binding
researchProduct

A novel structural unit in the N-terminal region of filamins.

2014

Immunoglobulin-like (Ig) domains are a widely expanded superfamily that act as interaction motifs or as structural spacers in multidomain proteins. Vertebrate filamins (FLNs), which are multifunctional actin-binding proteins, consist of 24 Ig domains. We have recently discovered that in the C-terminal rod 2 region of FLN, Ig domains interact with each other forming functional domain pairs, where the interaction with signaling and transmembrane proteins is mechanically regulated by weak actomyosin contraction forces. Here, we investigated if there are similar inter-domain interactions around domain 4 in the N-terminal rod 1 region of FLN. Protein crystal structures revealed a new type of dom…

Models MolecularEGF-like domainProtein ConformationFilaminsProtein domainMolecular Sequence DataBeta sheetmacromolecular substancesBiologyCrystallography X-RayBiochemistryProtein–protein interactionHAMP domainProtein structureHumansAmino Acid SequenceMolecular BiologyNuclear Magnetic Resonance Biomolecularta1182Cell BiologyProtein Structure TertiaryCrystallographyStructural biologyProtein Structure and FoldingBiophysicsBinding domainProtein BindingThe Journal of biological chemistry
researchProduct

Critical Structural Defects Explain Filamin A Mutations Causing Mitral Valve Dysplasia

2019

Mitral valve diseases affect approximately 3% of the population and are the most common reasons for valvular surgery because no drug-based treatments exist. Inheritable genetic mutations have now been established as the cause of mitral valve insufficiency, and four different missense mutations in the filamin A gene (FLNA) have been found in patients suffering from non-syndromic mitral valve dysplasia (MVD). The FLNA protein is expressed, in particular, in endocardial endothelia during fetal valve morphogenesis and is key in cardiac development. The FLNA-MVD causing mutations are clustered in the N-terminal region of FLNA. How the mutations in FLNA modify its structure and function, have mos…

Protein FoldingdysplasiatFilamins[SDV]Life Sciences [q-bio]PopulationProtein Tyrosine Phosphatase Non-Receptor Type 12BiophysicsMutation Missensesynnynnäiset sydänviatProtein tyrosine phosphataseBiologyMolecular Dynamics Simulationmedicine.disease_causeFilamin03 medical and health sciences0302 clinical medicinemitral valve dysplasiaMitral valvemedicineFLNAMissense mutationHumanseducationGene030304 developmental biologyGenetics0303 health sciencesMutationeducation.field_of_studyBinding SitesMitral Valve Prolapsecritical structural defectshiippaläppäfilamiinitArticles3. Good healthmedicine.anatomical_structurecardiovascular systemfilamin A mutationsgeneettiset tekijätmutaatiot030217 neurology & neurosurgeryProtein Binding
researchProduct

Skeletal Dysplasia Mutations Effect on Human Filamins’ Structure and Mechanosensing

2016

AbstractCells’ ability to sense mechanical cues in their environment is crucial for fundamental cellular processes, leading defects in mechanosensing to be linked to many diseases. The actin cross-linking protein Filamin has an important role in the conversion of mechanical forces into biochemical signals. Here, we reveal how mutations in Filamin genes known to cause Larsen syndrome and Frontometaphyseal dysplasia can affect the structure and therefore function of Filamin domains 16 and 17. Employing X-ray crystallography, the structure of these domains was first solved for the human Filamin B. The interaction seen between domains 16 and 17 is broken by shear force as revealed by steered mo…

0301 basic medicineFilaminsScienceProtein domainPeptide bindingPlasma protein bindingmacromolecular substancesBiologyMolecular Dynamics SimulationFilaminmedicine.disease_causeBioinformaticsCrystallography X-RayOsteochondrodysplasiasMechanotransduction CellularArticlecomputational biophysics03 medical and health sciences0302 clinical medicineProtein DomainsmedicineHumansLarsen syndromeForeheadMechanotransductionNMR-spektroskopiaActinMutationMultidisciplinaryBinding SitesQRSAXSmedicine.diseasecytoskeletal proteinsActinsCell biologybody regions030104 developmental biologyMutationMedicine030217 neurology & neurosurgeryröntgenkristallografiaProtein Binding
researchProduct