01015nam0-2200337li-450 99000014578020331620180312154910.01-56252-157-80014578USA010014578(ALEPH)000014578USA01001457820001109d1993----km-y0itay0103----baengUSData structures for engineering softwarePeter P. SilvesterSouthamptonComputational Mechanics Publicationscopyr. 1993struttura dei dati005.73.Silvester,Peter P.26912Sistema bibliotecario di Ateneo dell' Università di SalernoRICA990000145780203316005.73 SIL0005576BKTEC1995012520001110USA01171220020403USA011622PATRY9020040406USA011611Data structures for engineering software1501324UNISA04203nam 2200997z- 450 991055714670332120210501(CKB)5400000000040591(oapen)https://directory.doabooks.org/handle/20.500.12854/68616(oapen)doab68616(EXLCZ)99540000000004059120202105d2020 |y 0engurmn|---annantxtrdacontentcrdamediacrrdacarrierBioinorganic Chemistry of NickelBasel, SwitzerlandMDPI - Multidisciplinary Digital Publishing Institute20201 online resource (238 p.)3-03928-066-X 3-03928-067-8 The chemistry of nickel in biological systems has been intensely investigated since the discovery of the essential role played by this transition metal in the enzyme urease, ca. 1975. Since then, several nickel-dependent enzymes have been discovered and characterized at the molecular level using structural, spectroscopic, and kinetic methods, and insight into reaction mechanisms has been elaborated using synthetic and computational models. The dual role of nickel as both an essential nutrient and as a toxin has prompted efforts to understand the molecular mechanisms of nickel toxicology and to uncover the means by which cells select nickel from among a pool of different and more readily available metal ions and thus regulate the intracellular chemistry of nickel. This latter effort highlights the importance of proteins involved in the extra- and intra-cellular sensing of nickel, the roles of nickel-selective proteins for import and export, and nickel-responsive transcription factors, all of which are important for regulating nickel homeostasis. In this Special Issue, the contributing authors have covered recent advances in many of these aspects of nickel biochemistry, including toxicology, bacterial pathogenesis, carcinogenesis, computational and synthetic models, nickel trafficking proteins, and enzymology.Research & information: generalbicssc[NiFe]-hydrogenaseAD11allergyasthmabioavailabilitybiological nickel sitescarbon monoxide dehydrogenasecarcinogenicitychaperoneconformational changedinuclear nickel metallopeptidesecotoxicityenolase phosphatase 1 (ENOPH1)environmentG-proteingenotoxicityglyoxalasehistidine-rich proteinhydrogenaseInrSlncRNAlung carcinogenesismatrix metalloproteinase MT1 (MT1-MMP)metallochaperonemetalloenzymemetalloregulatormethioninemethionine salvage pathwaymethylthioadenosine (MTA)miRNAmolecular modellingmycothioln/ananoparticlesncRNANi-enzymesnickelnickel chaperonenickel enzymesnickel-dependent enzymenickel-dependent transcriptional regulatorsnickel-induced oligomerizationnickel-thiolatespathogenspolyaminequantum chemical calculationsreaction mechanismreproductiveS-adenosylmethionine (SAM)streptomycesthiolate oxidative damageureaseurease maturationResearch & information: generalMaroney Michael Jedt1313319Ciurli StefanoedtMaroney Michael JothCiurli StefanoothBOOK9910557146703321Bioinorganic Chemistry of Nickel3031282UNINA