IARC (1997). Silica, Some Silicates, Coal Dust and para-Aramid Fibrils. IARC Monographs on the Evaluation of the Carcinogenic Risk of Chemicals to Humans, Vol. 68, 475 pp. Lyon, France: IARC.
3.
DonaldsonK., and BormP.J.A. (1998). The quartz hazard: a variable entity.Annals of Occupational Hygiene, in press.
4.
FubiniB., GiamelloE., PuglieseC., and VolanteM. (1989). Mechanically induced defects in quartz and their impact in pathogenicity.Solid State Ionics32, 334–343.
5.
VallyathanV., ShiX., DalaiN.S., IrrW., and CastranovaV. (1988). Generation of free-radicals from freshly fractured silica dust: potential role in acute silica-induced lung injury.American Review of Respiratory Disease138, 1213–1219.
6.
JonesA.D. (1993). Respirable industrial fibres: deposition, clearance and dissolution in animal models.Annals of Occupational Hygiene3738, 211–226.
7.
DavisJ.M.G., JonesA.D., and MillerB.G. (1991). Experimental studies in rats on the effects of asbestos inhalation coupled with the inhalation of titanium dioxide or quartz.International Journal of Experimental Pathology72, 501–525.
8.
GavettS.H., MadisonS.L., DreherK.L., Win-settD.W., McGeeJ.K., and CostaD.L. (1997). Metal and sulfate composition of residual oil fly ash determines airway hyper-reactivity and lung injury in rats.Environmental Research72, 162–172.
9.
LisonD., CarbonnelleP., MolloL., LauwerysR., and FubiniB. (1995). Physicochemical mechanism of the interaction between cobalt metal and carbide particles to generate toxic activated oxygen species.Chemical Research in Toxicology8, 600–606.
10.
LundL.G., and AustA.E. (1990). Iron mobilization from asbestos by chelators and ascorbic acid.Archives of Biochemistry and Biophysics278, 61–64.
11.
RoesemsG., HoetP., DemedtsM., and NemeryB. (1997). In vitro toxicity of cobalt and hard metal dust in rat and human Type II pneumocytes.Pharmacology and Toxicology81, 74–80.
12.
ZanettiG., and FubiniB. (1997). Surface interaction between metallic cobalt and tungsten carbide particles as a primary cause of hard metal lung disease.Journal of Material Chemistry7, 1647–1654.
13.
GreenF.H.Y. (1988). Coal Workers’ pneumoconiosis and pneumoconiosis is due to other carbonaceous dugts. In Pathology of Occupational Lung Disease (ed. ChurgA., GreenF.H.Y.), pp. 89–326. New York: Igaku-Shoin.
14.
HepplestonA.G. (1984). Pulmonary toxicology of silica, coal and asbestos.Environmental Health Perspectives55, 111–127.
15.
Silicosis and Silicate Disease Committee. (1988). Diseases associated with exposure to silica and non-fibrous silicate minerals.Archives of Pathology and Laboratory Medicine112, 673–720.
16.
CraigheadJ.E., AbrahamJ.L., ChurgA., GreenF.H.Y., KleinermanJ., PrattP.C., SeemayerT.A., VallyathanV., and WeillH. (1982). The pathology of asbestos-associated diseases of the lungs and pleural cavities: diagnostic criteria and proposed grading scheme.Archives of Pathology and Laboratory Medicine106, 544–596.
17.
ButterworthB.E., PoppJ.A., ConollyR.B., and GoldsworthyT.L. (1992). Chemically induced cell proliferation in carcinogenesis. In Mechanisms of Carcinogenesis in Risk Identification (ed. VainioH., MageeP.N., McGregorD.B., McMichaelA.J.), pp. 279–305. Lyon, France: IARC.
18.
IARC (1993). IARC Monographs on the Evaluation of Carcinogenic Risks to Humans: List of IARC Evaluations, 35 pp. Lyon, France: IARC.
19.
KaneA.B., BoffettaP., SaracciR., and WilbournJ.D. eds (1996). IARC Scientific Publications No. 140: Mechanisms of Fibre Carcinogenesis., 135 pp. Lyon, France: IARC.
20.
CostaM. (1997). Non-mutagenic mechanisms of nickel carcinogenesis: inactivation of critical genes by nickel-induced DNA methylation and chromatin condensation. In Correlations Between In Vitro and In Vivo Investigations in Inhalation Toxicology (ed. DungworthD.L., AdlerK.B., HarrisC.C., PlopperC.G.), pp. 359–366. Washington, DC, USA: ILSI Press.
21.
SaffiottiU., DanielL.N., MaoY., Olufemi WilliamsA., Edward KaighnM., AhmedN., and KnaptonA.D. (1993). Biological studies on the carcinogenic mechanisms of quartz. In Reviews in Mineralogy, Vol. 28, Health Effects of Mineral Dusts (ed. GuthrieG.D.Jr., & MossmanB.T.), pp. 523–544. Chelsea, MI, USA: BookCrafters Inc.
22.
CastronovaV., VallyathanV., and WallaceW.E. eds (1996). Silica and Silica Induced Lung Diseases, 406 pp. Boca Raton, FL, USA: CRC Press.
23.
DriscollK.E., CarterJ.M., HowardB.W., HassenbeinD.G., PepelkoW., BaggsR.B., & OberdörsterG. (1996). Pulmonary inflammatory, chemokine, and mutagenic responses in rats after subchronic inhalation of carbon black.Toxicology and Applied Pharmacology136, 372–380.
24.
DriscollK.E., DeyoL.C., CarterJ.M., HowardB.W., HassenbeinD., and BertramT.A. (1997). Effects of particle exposure and particle-elicited inflammatory cells on mutation in rat alveolar epithelial cells.Carcinogenesis18, 423–430.
25.
WarheitD.B., HansenJ.F., YuenI.S., KellyD.P., SnajdrS.I., and HartskyM.A. (1997). Inhalation of high concentrations of low toxicity dusts in rats results in impaired pulmonary clearance mechanisms and persistent inflammation.Toxicology and Applied Pharmacology145, 10–22.
26.
Husgafrel-PursiainenK., HackmanP., RidanpääM., AntilaS., KarjalainenA., PartanenT., Taikina-AhoO., HeikkilaL., and VainioH. (1993). K-ras mutations in human adenocarcinoma of the lung: association with smoking and occupational exposure to asbestos.International Journal of Cancer53, 250–256.
27.
GreenblattM.S., BennettW.P., HollsteinM., and HarrisC.C. (1993). Mutations in the p53 tumor suppressor gene: clues to cancer etiology and molecular pathogenesis.Cancer Research54, 4855–4878.
28.
ColbyT.V., KossM.N., and TravisW.D. (1995). Specimen handling and special techniques. In Tumors of the Lower Respiratory Tract, pp. 32–48. Washington, DC, USA: Armed Forces Institute of Technology.
29.
LechnerJ.F., TesfaigziJ., and GerwinB.I. (1997). Oncogenes and tumor suppressor genes in mesothelioma: a synopsis.Environmental Health Perspectives105, Suppl. 5, 1061–1068.
30.
McFaddenD., WrightJ.L., WiggsB., and ChurgA. (1986). Smoking inhibits asbestos clearance.American Review of Respiratory Disease133, 372–374.
31.
JacksonJ.H., SchraufstatterI.U., HyslopP.A., VosbeckK., SauerheberR., WeitzmanS.A., and CochraneC.G. (1987). Role of oxidants in DNA damage: hydroxyl radicals mediate the synergistic DNA damaging effects of asbestos and cigarette smoke.Journal of Clinical Investigation80, 1090–1095.
32.
CarboneM., PassH.I., RizzoP., MarinettiM.R., DiMuzioM., MewD.J.Y., LevineA.S., and ProcopioA. (1994). Simian virus 40–like DNA sequences in human pleural mesothelioma.Oncogene9, 1781–1790.
33.
JaurandM.C. (1991). Mechanisms of fibre genotoxicity. In Mechanisms in Fibre Carcinogenesis (ed. BrownR.C., HoskinsJ.A., JohnsonN.F.), pp. 287–307. New York: Plenum Press.
34.
FitzpatrickD.R., PeroniD.J., & Bielefeldt-OhmannH. (1995). The role of growth factor and cytokines in the tumorigenesis and immunobiology of malignant mesothelioma.American Journal of Respiratory Cell and Molecular Biology12, 455–460.
35.
KampD.W., GraceffaP., PryorW.A., and WeitzmanS.A. (1992). The role of free-radicals in asbestos-induced diseases.Free-radicals in Biology and Medicine12, 293–315.
36.
JanssenY.M.W., MarshJ.P., AbsherM.P., GabrielsonE., BormP.J.A., DriscollK., and MossmanB.T. (1994). Oxidant stress responses in human pleural mesothelial cells exposed to asbestos.American Journal of Respiratory Critical Care in Medicine149, 795–802.
37.
GoldbergJ.L., ZanellaC.L., JanssenY.M.W., TimblinC.R., JimenezL.A., VacekP., TaatjesD.J., and MossmanB.T. (1997). Novel cell imaging techniques show induction of apoptosis and proliferation in mesothelial cells by asbestos.American Journal of Respiratory Cell and Molecular Biology17, 265–271.
38.
GadboisD.M., and LehnertB.E. (1997). Cell cycle response to DNA damage differs in bronchial epithelial cells and lung fibroblasts.Cancer Research57, 3174–3179.
39.
KleinC.G., KargacinB., SuL., CosentinoS., SnowE.T., & CostaM. (1994). Metal mutagenesis in transgenic Chinese hamster cell lines.Environmental Health Perspectives102, 63–67.
40.
CistulliC.A., SorgerT., MarsellaJ.M., VasletC.A., and KaneA.B. (1996). Spontaneous p53 mutation in murine mesothelial cells: increased sensitivity to DNA damage induced by asbestos and ionizing radiation.Toxicology and Applied Pharmacology141, 264–271.
41.
JohnsonN.F., HickmanA.W., CarpenterT.R., and NewtonG.J. (1997). Biodosimetric approach for estimating alpha particle dose to respiratory tract epithelial cells. In Correlations Between In Vitro and In Vivo Investigations in Inhalation Toxicology (ed. DungworthD.L., AdlerK.B., HarrisC.C., PlopperC.G.), pp. 393–404. Washington, DC, USA: ILSI Press.
42.
KasemoB., and LausmaaJ. (1986). Surface science aspects of inorganic biomaterials.Critical Reviews in Biocompatibility2, 335–380.
43.
VuV., BarrettJ.C., RoycroftJ., SchumanL., DankovicD., BaronP., MartonenT., PepelkoW., and LaiD. (1996). Chronic inhalational toxicity and carcinogenicity testing of respirable fibrous particles.Regulatory Toxicology and Pharmacology24, 202–212.
44.
RatnerB.D., SchoenF.J., and LemonsJ.E. eds (1996). Biomaterials Science: An Introduction to Materials in Medicine, 484 pp. San Diego, CA, USA: Academic Press.
45.
HorbettT.A., RatnerB.D., SchakenraadJ.M., and SchoenF.J. (1996). Some background concepts. In Biomaterials Science: An Introduction to Materials in Medecine (ed. RatnerB.D., HoffmanA.S., SchoenF.J., LemonsJ.E.), pp. 133–164. San Diego, CA, USA: Academic Press.
46.
HillI., BeswickP.H., and DonaldsonK. (1995). Differential release of superoxide anion by macrophages treated with long and short fibre amosite asbestos is a consequence of differential affinity for opsonin.Occupational and Environmental Medicine52, 92–96.
47.
BrownD.M., RobertsN., and DonaldsonK. (1998). Effect of coating with lung lining fluid on the ability of fibres to produce a respiratory burst in rat alveolar macrophages.Toxicology in Vitro12, 15–24.
48.
VromanL. (1992). Proteins from blood plasma at interfaces. In Interfacial Phenomena in Biological Systems (ed. BenderM.), pp. 137–150. New York: Marcel Dekker.
49.
BrashJ.L., and HorbettT.A. (1995). Proteins at interfaces: an overview. In Proteins at Interfaces, Vol. 2, Fundamentals and Applications (ed. HorbettT.A., BrashJ.L.), pp. 1–23. San Diego, CA, USA: American Chemical Society.
50.
Van OssC.J. (1994). Interfacial forces in aqueous media. In Interfacial Phenomena and Bio-products (ed. BrashJ.L., WojciechowskiP.W.), pp. 336–350. New York: Marcel Dekker.
51.
HaagsmanH.P., & Van GoldeL.M.G. (1985). Lung surfactant and pulmonary toxicology.Lung163, 275–282.
52.
LuL., KeaneM.J., OngT., and WallaceW.E. (1994). In vitro genotoxicity studies of chrysotile asbestos fibers dispersed in simulated pulmonary surfactant.Mutation Research320, 253–259.
53.
WojciechowskiP.W. (1996). Transport and adsorption of cells and proteins at interfaces. In Interfacial Phenomena and Bioproducts (ed. BrashJ.L., WojciechowskiP.W.), pp. 209–229. New York: Marcel Dekker.
54.
BoylanA.M., SananD.A., SheppardD., and BroaddusV.C. (1995). Vitronectin enhances internalization of crocidolite asbestos by rabbit pleural mesothelial cells via the integrin avb5.Journal of Clinical Investigation96, 1987–2001.
55.
FubiniB. (1997). Surface reactivity in the pathogenic response to particulates.Environmental Health Perspectives105, Suppl. 5, 1013–1020.
56.
BolisV., FubiniB., MarcheseL., MartraG., and CostaD. (1991). Hydrophilic and hydrophobic sites on variously dehydrated crystalline and amorphous silicas.Journal of the Chemistry Society Faraday Transactions87, 497–505.
57.
FubiniB., BolisV., CavenagoA., and VolanteM. (1995). Physicochemical properties of crystalline silica dusts and their possible implication in various biological responses.Scandinavian Journal of Worker and Environmental Health21, Suppl. 1, 9–15.
58.
WiessnerJ.H., MandelN.S., SohnleP.G., HasegawaA., and MandelG.S. (1990). The effect of chemical modification of quartz surfaces on p articulate-induced pulmonary inflammation and fibrosis in the mouse.American Review of Respiratory Disease141, 111–116.
59.
HochellaM.F. (1993). Surface chemistry, structure and reactivity of hazardous mineral dusts. In Reviews in Mineralogy, Vol. 28, Health Effects of Mineral Dusts (ed. GuthrieG.D.Jr., & MossmanB.T.), pp. 275–308. Chelsea, MI, USA: BookCrafters Inc.
60.
FubiniB., BolisV., GiamelloE., and VolanteM. (1991). Chemical functionalities at the broken fibre surface relatable to free-radicals production. In Mechanisms in Fibre Carcinogenesis (ed. BrownR.C., HoskinsJ.A., JohnsonN.F.), pp. 415–432. New York: Plenum Press.
61.
VolanteM., GiamelloE., MerloE., MolloL., and FubiniB. (1994). Surface reactivity of mechanically activated covalent solids and its relationship with the toxicity of freshly ground dusts: an EPR study. In Proceedings of the First International Conference on Mechanochemistry (ed. TkachovaK.), pp. 125–130. Cambridge: Cambridge Interscientific Publications.
62.
LisonD., LardotC., HuauxF., ZanettiG., and FubiniB. (1997). Influence of particle surface area on the toxicity of insoluble manganese dioxide dusts.Archives of Toxicology71, 725–729.
63.
BlesaM., MorandoP.J., and RegazzoniA.E. (1994). Chemical Dissolution of Metal Oxides, pp. 269–304. Boca Raton, FL, USA: CRC Press.
64.
HardyJ.A., and AustA.E. (1995). Iron in asbestos chemistry and carcinogenicity.Chemical Reviews95, 97–118.
65.
HardyJ.A., and AustA.E. (1995). The effect of iron binding on the ability of crocidolite asbestos to catalyze DNA single-strand breaks.Carcinogenesis16, 319–325.
66.
PezeratH., ZalmaR., GuignardJ., and JaurandM.C. (1989). Production of oxygen radicals by the reduction of oxygen arising from the surface activity of mineral fibers. In IARC Scientific Publications No. 90: Non Occupational Exposure to Mineral Fibres (ed. BignonJ., PetoJ., SaracciR.), pp. 100–110. Lyon, France: IARC.
67.
FubiniB., and MolloL. (1995). Role of iron in the reactivity of mineral fibres.Toxicology Letters82/83951–960
68.
FubiniB., MolloL., and GiamelloE. (1995). Free-radical generation at the solid/liquid interface in iron containing minerals.Free-radical Research23, 593–614.
69.
GulumianM., & Van WykJ.A. (1987). Hydroxyl radical production in the presence of fibres by a Fenton-type reaction.Chemico-Biological Interactions62, 89–97.
70.
LeandersonP., SöderkvistP., TagessonC., and AxelsonO. (1988). Formation of 8-hydroxy-deoxyguanosine by asbestos and man-made mineral fibres.British Journal of Industrial Medicine45, 309–311.
71.
LundL.G., and AustA.E. (1990). Iron mobilization from asbestos by chelators and ascorbic acid.Archives of Biochemistry and Biophysics278, 60–64.
72.
MolloL., MerloE., GiamelloE., VolanteM., BolisV., and FubiniB. (1994). Effect of chelators on the surface properties of asbestos. In NATO ASI Series, Vol. H85, Cellular and Molecular Effects of Mineral and Synthetic Dusts and Fibres (ed. DavisJ.M.G., JaurandM.C.), pp. 425–432. Berlin: Springer-Verlag.
73.
ChaoG-C., LundL.G., ZinnK.R., and AustA.E. (1994). Iron mobilization from crocidolite asbestos by human lung carcinoma cells.Archives of Biochemistry and Biophysics314, 384–391.
74.
FangR., and AustA.E. (1997). Induction of ferritin synthesis in human lung epithelial cells treated with crocidolite asbestos.Archives of Biochemistry and Biophysics340, 369–375.
75.
HartR.W., KendigO., BlakesleeJ., and MizuhiraV. (1980). Effect of cellular ingestion on the elemental ratio of asbestos. In The In Vitro Effects of Mineral Dusts (ed. BrownR.C., ChamberlainM., DaviesR., GormleyI.P.), pp. 191–199. London: Academic Press.
76.
HolmesA., and MorganA. (1967). Leaching and constituents of chrysotile and asbestos in vivo.Nature, London215, 441–442.
77.
SmithK.R., and AustA.E. (1997). Mobilization of iron from urban particulates leads to the generation of reactive oxygen species in vitro and induction of ferritin synthesis in human lung epithelial cells.Chemical Research in Toxicology10, 828–834.
78.
MossopM. (1992). Thermal Modification of Crocidolite and its Effects on Iron Mobilization. PhD thesis. Trent Polytechnic, Nottingham, UK.
79.
LambethCO., EricsonG.R., YorekM.A., and RayP.D. (1982). Implications for in vitro studies of the autoxidation of ferrous-ion and the iron-catalyzed autoxidation of dithiothreitol.Biochimica et Biophysica Acta719, 501–508.
80.
ChaoC-C., & AustA.E. (1993). Photochemical reduction of ferric iron by chelators results in DNA strand breaks.Archives of Biochemistry and Biophysics300, 544–550.
81.
DodsonR.F., GarciaJ.G.N., O'SullivanM., CornC., LevinJ., GriffithD.E., and KronenberdR.S. (1991). The usefulness of bronchoalveolar lavage in identifying past occupational exposure to asbestos: a light electron microscopy study.American Journal of Industrial Medicine19, 619–628.
82.
HammarS.P., and DodsonR.F. (1994). Asbestos related diseases. In Pulmonary Pathology (ed. DailD.H., HammarS.P.), pp. 901–983. New York: Springer-Verlag.
83.
KoertenH.K., BruijnJ.D., and DaemsW. (1990). The formation of asbestos bodies by mouse peritoneal macrophages. An in vitro study.American Journal of Pathology137, 121–134.
84.
LundL.G., WilliamsM.G., DodsonR.F., and AustA.E. (1994). Iron associated with asbestos bodies is responsible for the formation of single-strand breaks in X174 RFI DNA.Occupational and Environmental Medicine51, 200–204.
85.
GhioA.J., KennedyT.P., WhortonR., CrumblissA.L., HatchG.E., and HoidalJ.R. (1992). Role of surface complexed iron in oxidant generation and lung inflammation induced by silicates.American Journal of Physiology263, L511–518.
86.
GhioA.J., KennedyT.P., StonehuernerJ.G., CrumblissA.L., and HoidalJ.R. (1995). DNA strand breaks following in vitro exposure to asbestos increase with surface-complexed [Fe3+].Archives of Biochemistry and Biophysics311, 13–18.
87.
FisherC.E., BrownD.M., ShawJ., BeswickP.H., and DonaldsonK. (1998). Respirable fibres: surfactant-coated fibres release more Fe3+ than native fibres at both pH 4.5 and 7.2.Annals of Occupational Hygiene42, 337–345.
88.
BrownD.M., FisherC., and DonaldsonK. (1998). Free-radical activity of synthetic vitreous fibres: iron chelation inhibits hydroxyl radical generation by refractory ceramic fibre.Journal of Toxicology and Environmental Health53, 101–107.
89.
BucherJ.R., TienM., and AustS.D. (1983). The requirement for ferric iron in the initiation of lipid peroxidation by chelated ferrous iron.Biochemical and Biophysical Research Communications111, 777–784.
90.
BraughlerJ.M., DuncanL.A., and ChaseR.L. (1986). The involvement of iron in lipid peroxidation: importance of ferric to ferrous ratios in initiation.Journal of Biological Chemistry261, 10,282–10,289.
91.
MinottiG., and AustS.D. (1987). An investigation into the mechanism of citrate-Fe2+ dependent lipid peroxidation.Free-radicals in Biology and Medicine3, 379–387.
92.
MinottiG., and AustS.D. (1987). The requirement for iron (III) in the initiation of lipid peroxidation by iron (II) and hydrogen peroxide.Journal of Biological Chemistry262, 1098–1104.
93.
HalliwellB., and GutteridgeJ.M.C. (1989). Free-radicals in Biology and Medicine, 370 pp. Oxford: Oxford University Press.
94.
GaborS., and AncaZ. (1975). Effect of asbestos on lipid peroxidation in the red cells.British Journal of Industrial Medicine32, 39–41.
95.
IguchiH., and KojoS. (1989). Possible generation of hydrogen peroxide and lipid peroxidation of erythrocyte membrane by asbestos: cytotoxic mechanism of asbestos.Biochemistry International18, 981–990.
96.
GopdglickL.A., PietrasL.A., and KaneA.G. (1989). Evaluation of the causal relationship between crocidolite asbestos-induced lipid peroxidation and toxicity to macrophages.American Review of Respiratory Disease139, 1265–1273.
97.
TurverC.J., and BrownR.C. (1987). The role of catalytic iron in asbestos induced lipid peroxidation and DNA-strand breakage in C3H10T1/2 cells.British Journal of Cancer56, 133–136.
FontecaveM., MansuyD., JaouenM., and PezeratH. (1987). The stimulatory effects of asbestos on NADPH-dependent lipid peroxidation in rat liver microsomes.Biochemical Journal241, 561–565.
100.
GulumianM., SardianosF., Kilroe-SmithT., and OckerseG. (1983). Lipid peroxidation in microsomes induced by crocidolite fibers.Chemical and Biological Interactions44, 111–118.
101.
JajteJ., LaoI., & Wiseniewska-KrryplJ.M. (1988). Enhanced lipid peroxidation and lysosomal enzyme activity in the lungs of rats with prolonged pulmonary deposition of crocidolite asbestos.British Journal of Industrial Medicine44, 180–186.
102.
KamalA.A.M., GomaaA., KhafifM.E., and HammadA.S. (1989). Plasma lipid peroxides among workers exposed to silica or asbestos dusts.Environmental Research49, 173–180.
103.
WeitzmanS.A., and WeitbergA.B. (1985). Asbestos-catalysed lipid peroxidation and its inhibition by desferroxamine.Biochemical Journal225, 259–262.
104.
DizdarogluM. (1993). DNA and Free-radicals, pp. 19–39. Chichester, UK: Ellis Horwood.
105.
KampD.W., IsrabianV.A., PreusenS., ZhangC.X., and WeitzmanS.A. (1995). Asbestos causes DNA strand breaks in cultured pulmonary epithelial cells: role of iron-catalyzed free-radicals.American Journal of Physiology (Lung Cellular and Molecular Physiology)268, L471–480.
106.
LibbusB.L., IllenyeA.A., and CraigheadJ.E. (1989). Induction of DNA strand breaks in cultured rat embryo cells by crocidolite asbestos as assessed by nick translation.Cancer Research49, 5713–5718.
107.
LundL.G., and AustA.E. (1992). Iron mobilization from crocidolite asbestos greatly enhances crocidolite-dependent formation of DNA single-strand-breaks in X174 RFI DNA.Carcinogenesis13, 637–642.
108.
AdachiS., YoshidaS., KawamuraK., TakahashiM., UchidaH., OdagiriY., and TakemotoK. (1994). Induction of oxidative DNA damage and mesothelioma by crocidolite, with special reference to the presence of iron inside and outside of asbestos fibre.Carcinogenesis15, 753–758.
109.
KasaiH., and NishimuraS. (1984). DNA damage induced by asbestos in the presence of hydrogen peroxide.Cancer Research75, 841–844.
110.
GilmourP.S., BeswickP.H., BrownD.M., and DonaldsonK. (1995). Detection of surface free-radical activity of respirable industrial fibres using supercoiled X174RFI plasmid DNA.Carcinogenesis16, 2973–2979.
111.
BergerM., HazenM.D., NejjariA., FournierJ., GuignardJ., PezeratH., and CadetJ. (1993). Radical oxidation reactions of the purine moiety of 2’-deoxyribonucleosides and DNA by iron-containing minerals.Carcinogenesis14, 41–46.
112.
TakeuchiT., and MorimotoK. (1994). Crocidolite asbestos increased 8-hydroxydeoxyguahosine levels in cellular DNA of a human promyelocytic leukemia cell line, HL60.Carcinogenesis15, 635–639.
113.
ChaoC-C., ParkS.H., and AustA.E. (1996). Participation of nitric oxide and iron in the oxidation of DNA in asbestos-treated human lung cells.Archives of Biochemistry and Biophysics326, 152–157.
114.
FungH., KowY.W., Van HoutenB., & Moss-manB.T. (1997). Patterns of 8-hydroxyguanosine formation in DNA and indications of oxidative stress in rat and human pleural mesothelial cells after exposure to crocidolite asbestos.Carcinogenesis18, 825–832.
115.
ThomasG., AndoT., VermaK, & KaganE. (1994). Asbestos fibres and interferon-γ up-regulate nitric oxide production in rat alveolar macrophage.American Journal of Respiratory Cell and Molecular Biology10, 167–171.
116.
BrodyA.R., and HillG.G. (1983). Interactions of chrysotile and crocidolite asbestos with red blood cell membranes: chrysotile binds to sialic acid.Laboratory Investigations49, 468–475.
117.
JaurandM.C., MagneL., and BignonJ. (1979). Inhibition by phospholipids of haemolytic action of asbestos.British Journal of Industrial Medicine36, 113–116.
118.
JaurandM.C., MagneL., and BignonJ. (1983). Mechanism of haemolysis by chrysotile fibres.Toxicology Letters15, 205–211.
119.
BoylanA.M., RueggC., KimK.J., HebertC.A., HoeffelJ.M., PytelaR., SheppardD., GoldsteinI.M., and BroaddusV.C. (1992). Evidence of a role for mesothelial cell-derived interleukin-8 in the pathogenesis of asbestos-induced pleurisy in rabbits.Journal of Clinical Investigation89, 1257–1267.
120.
JaurandM.C., MagneL., BoulmierJ.L., and BignonJ. (1981). In vitro reactivity of alveolar macrophages and red blood cells to asbestos fibres treated with oxalic acid, sulfur dioxide and benzo-(3-4)-pyrene.Toxicology21, 323–342.
121.
HesterbergT.W., RirieD.G., BarrettJ.C., and NettesheimP. (1987). Mechanisms of cytotoxicity of asbestos fibres in rat tracheal epithelial cells in culture.Toxicology in Vitro1, 59–65.
122.
KampD.W., DunnM.M., SbalchieroJ.S., KnapA.M., and WeitzmanS.A. (1994). Contrasting effects of alveolar macrophages and neutrophils on asbestos-induced pulmonary epithelial cell injury.American Journal of Physiology — Lung Cellular and Molecular Physiology10, L84–91.
123.
DonaldsonK., MillerB.G., SaraE., SlightJ., and BrownR.C. (1993). Asbestos fibre length-dependent detachment injury to alveolar epithelial cells in vitro: role of a fibronectin-binding receptor.International Journal of Experimental Pathology74, 243–250.
124.
HartG.A., NewmenM.M., BunnW.B., and HesterbergT.W. (1992). Cytotoxicity of refractory ceramic fibres to Chinese hamster ovary cells in culture.Toxicology in Vitro6, 317–326.
125.
HartG.A., KathmanL.M., and HesterbergT.W. (1994). In vitro cytotoxicity of asbestos and man-made vitreous fibres: roles of fibre length, diameter and composition.Carcinogenesis15, 971–977.
126.
LevresseV., RenierA., Fleury-FeithJ., LevyF., MoritzS., VivoC., PilatteY., and JaurandM.C. (1997). Analysis of cell cycle disruptions in cultures of rat pleural mesothelial cells exposed to asbestos fibres.American Journal of Respiratory Cell and Molecular Biology17, 660–671.
127.
MosmannT. (1983). Rapid colorimetric assay for cellular growth and survival: application to proliferation and cytotoxicity assays.Journal of Immunological Methods65, 55–63.
128.
DongH.Y., BuardA., RenierA., LevyF., Saint-EtienneL., and JaurandM.C. (1994). Role of oxygen derivatives in the cytotoxicity and DNA damage produced by asbestos on rat pleural mesothelial cells in vitro.Carcinogenesis15, 1251–1255.
129.
BérubéK.A., QuilanT.R., MoultonG., HemenwayD., O'ShaughnessyP., VacekP., and MossmanB.T. (1996). Comparative proliferative and histopathologic changes in rat lungs after inhalation of chrysotile and crocidolite asbestos.Toxicology and Applied Pharmacology137, 67–74.
130.
BroaddusV.C., YangL., ScavoL.M., ErnstJ.D., and BoylanA.M. (1996). Asbestos induces apoptosis of human and rabbit pleural mesothelial cells via reactive oxygen species.Journal of Clinical Investigation98, 2050–2059.
131.
BrownG.M., CowieH., DavisJ.M.G., and DonaldsonK. (1986). In vitro assays for detecting carcinogenic mineral fibres: a comparison of two assays and the role of the fibre size.Carcinogenesis7, 1971–1974.
132.
AmstadP.A., KrupitzaG., and CeruttiP.A. (1992). Mechanism of c-fos induction by active oxygen.Cancer Research52, 3952–3960.
133.
BahiaK., PommierY., GiriC., FornaceA.J., ImaizumiM., BreitmanT.R., CherneyB.W., and SmulsonM.E. (1990). Expression of the poly(ADP-ribose)polymerase gene following natural and induced DNA strand breakage and hyperexpression on DNA repair.Cancer Research50, 123–128.
134.
DongH.Y., BuardA., LevyF., RenierA., LavalF., and JaurandM.C. (1995). Synthesis of poly(ADP-ribose) in asbestos treated rat pleural mesothelial cells in culture.Mutation Research331, 197–204.
135.
JanssenY.M.W., HeintzN.H., MarshJ.P., BormP.J.A., and MossmanB.T. (1994). Induction of c-fos and c-jun proto-oncogenes in target cells of the lung and pleura by carcinogenic fibres.American Journal of Respiratory Cell and Molecular Biology11, 522–530.
136.
JanssenY.M.W., BarchowskyA., TreadwellM., DriscollK.E., and MossmanB.T. (1995). Asbestos induces nuclear factor κB(NF-κB) DNA-binding activity and NF-κB-dependent gene expression in tracheal epithelial cells.Proceedings of the National Academy of Sciences, USA92, 8458–8462.
137.
WangZ., LarssonK., MalmbergP., LarssonP., and LarssonL. (1997). Inhalation of swine dust induces cytokine release in the upper and lower respiratory airways.European Respiratory Journal10, 381–387.
138.
PiguetP.F., CollartM.A., GrauG.E., SappinoA.P., and VassaliP. (1990). Requirement of tumor necrosis factor for development of silica-induced pulmonary fibrosis.Nature, London344, 245–247.
139.
SchinsR.P.F., and BormP.J.A. (1995). Epidemiological evaluation of release of monocyte TNF-α as an exposure and effect marker in pneumoconiosis: a five-year follow-up study.Occupational and Environmental Medicine52, 441–450.
140.
BormP.J.A., PalmenN., EngelenJ.J.M., and BuurmanW.A. (1988). Spontaneous and stimulated release of tumor necrosis factor (TNF)-α from blood monocytes of miners with coal workers’ pneumoconiosis.American Review of Respiratory Disease138, 1589–1594.
141.
DriscollK.E., HigginsJ.M., LeytartM.J., and CrosbyL.L. (1990). Differential effects of mineral dusts on the in vitro activation of alveolar macrophage eicosanoid and cytokine release.Toxicology in Vitro4, 284–288.
142.
PerkinsR.C., ScheuleR.K., HamiltonR., GomesG., FreidmanG., and HolianA. (1993). Human alveolar macrophage cytokine release in response to in vitro and in vivo asbestos exposure.Experimental Lung Research19, 55–65.
143.
MontesanoR., BartschH., VainioH., WilbournJ., & YamasakiH. eds (1986). IARC Scientific Publications No. 83, Long-term and Short-term Assays for Carcinogens: A Critical Appraisal, 551 pp. Lyon, France: IARC.
144.
KakunageT., and YamasakiH. eds (1985). IARC Scientific Publications No. 67: Transformation Assay of Established Cell Lines: Mechanisms and Application, 219 pp. Lyon, France: IARC.
145.
YamasakiH. ed. (1996). Use of the Syrian Hamster Embryo (SHE) Cell Transformation Assay for Predicting the Carcinogenic Potential of Chemicals. Mutation Research356, Suppl. 1, 127 pp.
146.
HeiT.K., HeZ.Y., PiaoC.Q., and WaldrenC. (1991). The mutagenicity of mineral fibers. In Mechanisms of Fiber Carcinogenesis (ed. BrownR.C.), pp. 319–325. New York: Plenum Publishing Corp.
147.
ParkS-H., & AustA.E. (1998). Participation of iron and nitric oxide in the mutagenicity of asbestos in hgprt-, gpt+ Chinese hamster V79 cells.Cancer Research58, 1144–1148.
148.
EliasZ., PoirotO., SchneiderO., MarandeA.M., DaniereM.C., TerzettiF., PezeraH., FournierJ., and ZalmaR. (1995). Cytotoxic and transforming effects of some iron-containing minerals in Syrian hamster embryo cells.Cancer Detection and Prevention19, 405–414.
149.
EliasZ., PoirotO., DanièreM.C., TerzettiF., and MarandeA.M. (1997). Cytotoxic and morphological transforming effects of refractory ceramic fibers in Syrian hamster embryo (SHE) cells.Mutation Research379, Suppl. 1, 198 pp.
150.
DanielL.N., MaoY., WangT.L., MarkeyC.J., MarkeyS.P., ShiX., and SaffiottiU. (1995). DNA strand breakage, thymine glycol production and hydroxyl radical generation induced by different samples of crystalline silica in vitro.Environmental Research71, 60–73.
151.
ChangL.W. ed. (1996). Toxicology of Metals, 1198 pp. Boca Raton, FL, USA: CRC Press.
152.
EliasZ., SchneiderO., AubryF., DaniereM.C., and PoirotO. (1983). Sister-chromatid exchanges in Chinese hamster V79 cells treated with the trivalent chromium compounds chromic chloride and chromic oxide.Carcinogenesis4, 605–611.
153.
EliasZ., PoirotO., BaruthioF., and DaniereM.C. (1991). Role of solubilized chromium in the induction of morphological transformation of Syrian hamster embryo (SHE) cells by particulate chromium (VI) compounds.Carcinogenesis12, 1811–1816.
154.
EliasZ., PoirotO., SchneiderO., DanièreM.C., TerzettiF., GuedenetJ.C., and CavelierC. (1986). Cellular uptake, cytotoxic and mutagenic effects of insoluble chromic oxide in V79 Chinese hamster cells.Mutation Research169, 159–170.
155.
EliasZ., PoirotO., PezeratH., SuquetH., SchneiderO., DaniereM.C., TerzettiF., BaruthioF., FournierM., and CavelierC. (1989). Cytotoxic and neoplastic transforming effects of industrial hexavalent chromium pigments in Syrian hamster embryo cells.Carcinogenesis10, 2043–2052.
156.
KimG., and YurkowE.J. (1996). Chromium induces a persistent activation of mitogen-activated protein kinases by a redox-sensitive mechanism in H4 rat hepatoma cells.Cancer Research56, 2045–2051.
157.
MacGregorJ.T., FarrS., TuckerJ.D., HeddleA., TiceR.R., and TurteltaubK.W. (1995). New molecular endpoints and methods for routine toxicity testing.Mutation Research26, 156–173.
158.
AnardD., Kirsch-VoldersM., ElhajoujiA., BelpaemeK., & LisonD. (1997). In vitro genotoxic effects of hard metal particles assessed by alkaline single cell gel and elution assays.Carcinogenesis18, 177–184.
159.
SebastienP. (1991). Pulmonary deposition and clearance of airborne mineral fibres. In Mineral Fibres and Health (ed. LiddellD., MillerK.), pp. 229–248. Boca Raton, FL, USA: CRC Press.
160.
BellmannB., KonigH., MuhleH., and PottF. (1986). Chemical durability of asbestos and of man-made mineral fibres in vivo.Journal of Aerosol Science17, 341–345.
161.
ScholtzeC.E., and ConradtR. (1987). An in vitro study of the chemical durability of siliceous fibres.Annals of Occupational Hygiene31, 683–692.
162.
PotterR.M., and MattsonS.M. (1991). Glass fibre dissolution in a physiological saline solution.Glastechnische Berichte64, 16–28.
163.
DavisJ.M.G., BrownD.M., CullenR.T., DonaldsonK., JonesA.D., MillerB.G., McintoshC., and SearlA. (1996). A comparison of methods for determining and predicting the pathogenicity of mineral fibres.Inhalation Toxicology8, 747–770.
164.
HesterbergT.W., MillerW.C., McConnellE.E., ChevalierJ., HadleyJ.G., BernsteinD.M., ThevanazP., and AndersonR. (1993). Chronic inhalation toxicity of size-separated glass fibres in Fisher-344 rats.Fundamental and Applied Toxicology20, 464–476.
165.
NorthupS.J. (1986). Mammalian cell culture models. In Handbook of Biomaterials Evaluation (ed. Von RecumA.F.), pp. 209–232. New York: MacMillan.
166.
PizzoferratoA., CiapettiG., SteaS., CenniE., ArciolaC., GranchiD., and SavarinoL. (1994). Cell culture methods for testing biocompatibility.Clinical Materials15, 173–190.
167.
KrombachF., MünzingK., AllmelingA-M., GerlachJ.T., BehrJ., & DörgerM. (1997). Cell size and alveolar macrophages: an interspecies comparison.Environmental Health Perspectives105, Suppl. 5, 1261–1263.
168.
DörgerM., JeshN.K., RiederG., HirvonenM-R., SavolainenK., KrombachF., and MessmerK. (1997). Species differences in nitric oxide formation by rat and hamster alveolar macrophages in vitro.American Journal of Respiratory Cell and Molecular Biology16, 413–420.
169.
LardotC., HuauxF., BroeckaertF., DeclercqP.J., DelosM., FubiniB., and LisonD. (1998). Role of urokinase in the fibrogenic response of the lung to mineral particles.American Journal of Respiratory Critical Care in Medicine157, 617–628.
170.
HeinrichU., FuhstR., RittinghausenS., CreutzenbergO., BellmannB., KochW., and LevsenK. (1995). Chronic inhalation exposure of Wistar rats and two different strains of mice to diesel engine exhaust, carbon black, and titanium dioxide.Inhalation Toxicology7, 533–556.
171.
OberdorsterG., BooseC.H., PottF., and PfeifferU. (1980). In vitro dissolution rates of trace elements from mineral fibres. In The In Vitro Effects of Mineral Dusts (ed. BrownR.C., ChamberlainM., DaviesR., GormleyL.P.), pp. 183–189. London: Academic Press.
172.
MastR.W., McConnellE.E., AndersonR., ChevalierJ., KotinP., BernsteinD.M., ThevenazP., GlassL.R., MillerW.C., and HerstebergT.W. (1994). Studies on the chronic toxicity (inhalation) of four types of refractory ceramic fiber in male Fisher 344 rats.Inhalation Toxicology6, 372–384.