about
Revisiting the paradigm of silica pathogenicity with synthetic quartz crystals: the role of crystallinity and surface disorderThe surface reactivity and implied toxicity of ash produced from sugarcane burning.Multiple aspects of the interaction of biomacromolecules with inorganic surfaces.Free-radical chemistry as a means to evaluate lunar dust health hazard in view of future missions to the moon.Markers of lipid oxidative damage in the exhaled breath condensate of nano TiO2 production workers.Weathering of chrysotile asbestos by the serpentine rock-inhabiting fungus Verticillium leptobactrum.Surface reactivity and cell responses to chrysotile asbestos nanofibers.Surface iron inhibits quartz-induced cytotoxic and inflammatory responses in alveolar macrophages.High aspect ratio materials: role of surface chemistry vs. length in the historical "long and short amosite asbestos fibers".Assessment of asbestos exposure during a simulated agricultural activity in the proximity of the former asbestos mine of Balangero, Italy.Iron-loaded synthetic chrysotile: a new model solid for studying the role of iron in asbestos toxicity.Potential toxicity of nonregulated asbestiform minerals: balangeroite from the western Alps. Part 3: Depletion of antioxidant defenses.Potential toxicity of nonregulated asbestiform minerals: balangeroite from the western Alps. Part 2: Oxidant activity of the fibers.Potential toxicity of nonregulated asbestiform minerals: balangeroite from the western Alps. Part 1: Identification and characterization.Surface reactivity of amphibole asbestos: a comparison between crocidolite and tremolite.New detoxification processes for asbestos fibers in the environment.Crystalline phase modulates the potency of nanometric TiO₂ to adhere to and perturb the stratum corneum of porcine skin under indoor light.Role of associated mineral fibres in chrysotile asbestos health effects: the case of balangeroite.Gallic acid grafting modulates the oxidative potential of ferrimagnetic bioactive glass-ceramic SC-45.Physico-chemical properties of quartz from industrial manufacturing and its cytotoxic effects on alveolar macrophages: The case of green sand mould casting for iron production.Editor's Highlight: Abrasion of Artificial Stones as a New Cause of an Ancient Disease. Physicochemical Features and Cellular Responses.Markers of oxidative damage of nucleic acids and proteins among workers exposed to TiO2 (nano) particles.The influence of surface charge and photo-reactivity on skin-permeation enhancer property of nano-TiO₂ in ex vivo pig skin model under indoor light.Microwave-Assisted Synthesis and Physicochemical Characterization of Tetrafuranylporphyrin-Grafted Reduced-Graphene Oxide.Ζ potential evidences silanol heterogeneity induced by metal contaminants at the quartz surface: Implications in membrane damage.Model system to study the influence of aggregation on the hemolytic potential of silica nanoparticles.Oxidative stress markers are elevated in exhaled breath condensate of workers exposed to nanoparticles during iron oxide pigment production.Biowaste-derived substances as a tool for obtaining magnet-sensitive materials for environmental applications in wastewater treatmentsSoil Fungi Reduce the Iron Content and the DNA Damaging Effects of Asbestos FibersChrysotile asbestos is progressively converted into a non-fibrous amorphous material by the chelating action of lichen metabolitesHydroxyl density affects the interaction of fibrinogen with silica nanoparticles at physiological concentrationSurface alteration mechanism and topochemistry of iron in tremolite asbestos: A step toward understanding the potential hazard of amphibole asbestosRapid purification/oxidation of multi-walled carbon nanotubes under 300 kHz-ultrasound and microwave irradiationEvolution and Reversibility of Host/Guest Interactions with Temperature Changes in a Methyl Red@Palygorskite Polyfunctional Hybrid NanocompositeSynthesis of α-Quartz with Controlled Properties for the Investigation of the Molecular Determinants in Silica ToxicologyA biomimetic approach to the chemical inactivation of chrysotile fibres by lichen metabolitesThe combination of oxalic acid with power ultrasound fully degrades chrysotile asbestos fibresA new approach to the decontamination of asbestos-polluted waters by treatment with oxalic acid under power ultrasoundThe iron-related molecular toxicity mechanism of synthetic asbestos nanofibres: a model study for high-aspect-ratio nanoparticlesAn integrated approach to the study of the interaction between proteins and nanoparticles
P50
Q28396719-8757A783-E453-40B5-8933-199D69D9E497Q34202595-39237393-7459-4C4B-BF53-3DB7C9311A2AQ37922880-9C1BA134-441D-41B8-A0C9-FE584F20401BQ38426277-A401CC47-1BC9-4D62-BD8A-8DD2571E0AAFQ39180638-C6A1C61D-0E99-4089-80FB-29B4F0CBB8B4Q39209226-469D1EF9-8FF2-4203-AAF2-FABAB5F24565Q39373223-75BFE0C5-56FA-4966-ACF9-DD4ABBC26744Q39618024-2E887703-CC0E-4CC3-9014-13A7EDE28834Q39666241-397E1B21-1167-4C6B-A147-63D193E7BD2BQ40017554-363A8E4C-F1CA-4052-9AD4-0D3539487069Q40168225-668BF89C-5782-4AC6-B8E3-759D6320EA88Q40452430-30427B4A-A3D5-48DD-ADE9-0B5E4ED88CCCQ40452438-10DD8303-1EA3-4885-8AFC-328EDDE97EBFQ40452443-2AF27AFA-17BE-4C7D-8579-E5E4D3FF3484Q43020863-36C2EBF0-FBC5-47B0-8CC6-4D311044DF74Q43314193-AD0E5470-839D-41E0-A085-09CDAE89B30EQ44418717-38C3ED1A-6C24-444C-AAD5-0891B49C4BF6Q45929765-DE75F6FC-7E33-4FEC-A5B5-FE0556064D3FQ46464778-8504BB92-F358-48C9-8511-F711C8F824BCQ46573704-7BBC9EB4-5F88-4661-801A-434BF1151255Q47304826-802CA6F5-7DC3-4CAE-84E8-CDB387CC6724Q47889769-1DB43FCF-C77A-4787-AA1D-B28FC794F301Q48011844-01A9551A-A547-490F-B42B-5876C2628C3CQ48099020-55538105-7D60-49A3-A5F5-A590B8B4CA5FQ50204193-296151E5-3063-47B6-AF71-D700B5199E7CQ50526008-66CB78FF-A007-43DB-A0AB-733E15E78DE0Q51551009-1C7C50EA-9C2A-4A96-BC42-640D890D8EE7Q56545958-D5FC45A7-AABF-43A5-86BB-3C16A478FE39Q56918947-AD888493-31FC-4266-9DD6-C82944A421CAQ56990221-6C6721E7-221E-449B-87AF-9186C47F3EBFQ57164420-FDC03292-E8B0-4D05-9B8F-035E18389D58Q59743736-0C990602-CDAB-4C99-8FCC-4E9160C16617Q60165920-786F5ED0-E206-4752-A225-AF5B1C56D2CCQ60429988-FF985490-9636-408C-B966-824E29F5339DQ60481268-EC5BC20A-D2ED-4DAB-A386-793D8AE12FDEQ79762437-8E954227-C08A-4E7D-A494-5B2B509AB3A6Q81382678-B3755F28-C098-4B1C-B69D-3C1EE0865BBDQ81431253-EC98AA20-B805-411B-A91E-5E5EA0618C69Q83131858-3E8F6737-001A-4D3D-81CA-CB4DA6972C5FQ83141575-9F9B3E12-B5A2-45CB-9E39-8EBFC26D3D66
P50
description
hulumtues
@sq
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Francesco Turci
@ast
Francesco Turci
@en
Francesco Turci
@es
Francesco Turci
@nl
Francesco Turci
@sl
type
label
Francesco Turci
@ast
Francesco Turci
@en
Francesco Turci
@es
Francesco Turci
@nl
Francesco Turci
@sl
prefLabel
Francesco Turci
@ast
Francesco Turci
@en
Francesco Turci
@es
Francesco Turci
@nl
Francesco Turci
@sl
P1053
L-9765-2015
P106
P1153
7004257380
P21
P31
P3829
P496
0000-0002-5806-829X