307
Paytan, A., Kastner, M., Martin, E.E., MacDougall,
J.D., and Herbert, T., 1993. Marine barite as a monitor of seawater strontium isotope composition.
Nature, 366: 445-449.
Paytan, A., Kastner, M. and Chavez, F.P., 1996a.
Glacial to interglacial fluctuations in productivity in
the equatorial Pacific as indicated by marine barite.
Science, 274: 1355-1357.
Paytan, A., Moore, W.S. and Kastner, M., 1996b. Sedimentation rate as determined by
226 Ra activity in
marine barite. Geochimica et Cosmochi-mica Acta,
60: 4313-4319.
Paytan, A., Kastner, M., Campbell, D. and Thiemens,
M.H., 1998. Sulfur isotope composition of Cenozoic
seawater sulfate. Science, 282: 1459-1462.
Paytan, A., Mearon, S., Cobb, K. and Kastner, M., 2002.
Origin of marine barite deposits: Sr and S isotope
characterization. Geology, 30: 747-750.
Paytan, A., Martinez-Ruiz, F., Eagle, M., Ivy, A. and
Wankel, S.D., 2004. Using sulfur isotopes to
elucidate the origin of barite associated with high
organic matter accumulation events in marine
sediments. In: Amend, J.P., Edwards, K.J. and Lyons,
T.W. (eds), Sulfur Biogeochemistry – Past and
Present. Geological Society of America Special
Paper 379, pp. 151-160.
Poulton, S.W., Krom, M.D. and Raiswell, R., 2004. A
revised scheme for the reactivity of iron
(oxyhydr)oxides
towards
dissolved
sulfide.
Geochimica et Cosmochimica Acta, 68: 3703-3715.
Pyzik, A.J. and Sommer, S.E., 1981. Sedimentary iron
monosulfides: kinetics and mechanism of formation.
Geochimica et Cosmochimica Acta, 45: 687-698.
Rabus, R., Hansen, T., and Widdel, F., 2004.
Dissimilatory Sulfate- and Sulfur Reducing Prokaryotes. In: Dworkin, M. et al. (eds), The Prokaryotes: An Evolving Electronic Resource for the
Microbiological Community, 3rd edition, SpringerVerlag, New York, (http://link.springer-ny.com/link/
service/books/10125/).
Raiswell, R., 1982. Pyrite texture, isotopic composition
and the availability of iron. American Journal of
Science, 282: 1244-1265.
Raiswell, R., 1988. Chemical model for the origin of
minor limestone-shale cycles by anaerobic methane
oxidation. Geology, 16: 641-644.
Raiswell, R., and Canfield, D.E., 1998. Sources of iron
for pyrite formation in marine sediments. American
Journal of Science, 298: 219-245.
Raiswell, R., Canfield, D.E. and Berner, R.A., 1994. A
comparison of iron extraction methods for the
determination of degree of pyritization and the recognition of iron-limited pyrite formation. Chemical Geology, 111: 101-110.
Reeburgh, W.S., 1969. Observations of gases in
Chesapeake Bay sediments. Limnology and Oceanography, 14: 368-375.
Reeburgh, W.S., 1976. Methane consumption in Cariaco
Trench waters and sediments. Earth and Planetary
Science Letters, 47: 345-352.
Reeburgh, W.S., 1982. A major sink and flux control for
methane in sediments: Anaerobic consumption. In:
Fanning, K.A. and Manheim, F.T. (eds), The
dynamic environment. Heath, Lexington, MA, pp.
203-217.
Reeburgh, W.S., Whalen, S.C., and Alperin, M.J., 1993.
The role of methylotrophy in the global methane
budget. In: Murrell, J.C., and Kelly, D.P. (eds),
Microbial growth on C 1 compounds. Intercept,
Andover, UK, pp. 1-14.
Reitz, A., Hensen, C., Kasten, S., Funk, J. and de Lange,
G., 2004. A combined geochemical and rockmagnetic investigation of a redox horizon at the last
glacial/interglacial transition. Physics and Chemistry
of the Earth, 29: 921-931.
Rickard, D.T., 1975. Kinetics and mechanisms of pyrite
formation at low temperatures. American Journal of
Science, 275: 636-652.
Rickard, D. and Luther III, G.W., 1997. Kinetics of
pyrite formation by the H 2 S oxidation of iron(II)
monosulfide in aqueous solutions between 25 and
125°C: The rate equation. Geochimica et Cosmochimica Acta, 61: 115-134.
Rickard, D., Schoonen, M.A.A., Luther, G.W., 1995.
Chemistry of iron sulfides in sedimentary
environments. In: Vairavamurthy, M.A. and
Schoonen, M.A.A. (eds), Geochemical Transformations of Sedimentary Sulfur. ACS Symposium
Series 612, Washington DC, pp. 168-193.
Riedinger, N., 2005. Preservation and diagenetic
overprint of geochemical and geophysical signals
in ocean margin sediments related to depositional
dynamics. Berichte, 242, Fachbereich Geowissenschaften, Universität Bremen, 91 pp.
Riedinger, N., Pfeifer, K., Kasten, S., Garming, J.F.L.,
Vogt, C. and Hensen, C., 2005. Diagenetic alteration of magnetic signals by anaerobic oxidation
of methane related to a change in sedimentation
rate. Geochimica et Cosmochimica Acta, 69:
4 1 1 7 - 4 1 2 6 .
Roden, E.E., and Tuttle, J.H., 1992. Sulfide release from
estuarine sediments underlying anoxic bottom water.
Limnology and Oceanograpy 37: 725-738.
Rusch, A., Töpken, H., Böttcher, M.E., and Höpner, T.,
1998. Recovery from black spots: results of a
loading experiment in the Wadden Sea. Journal of
Sea Research, 40: 205-219.
Schink, B., 1997. Energetics of syntrophic cooperation
in methanogenic degradation. Microbiological and
Molecular Biological Reviews, 61: 262-280.
Schinzel, U., 1993. Laboratory experiments on early diagenetic reactions of iron(III) oxyhydroxides in marine
sediments (in German). Berichte, 36, Fachbereich
Geowissenschaften, Universität Bremen, 189 pp.
Schippers, A., 2004. Biogeochemistry of metal sulfide
oxidation in mining environments, sediments, and
soils. In: Amend, J.P., Edwards, K.J., and Lyons, T.W.
(eds), Sulfur biogeochemistry - Past and Present.
Geological Society of America Special Paper 379,
Boulder, Colorado, pp. 49-62
Schippers, A., and Jørgensen, B.B., 2001. Oxidation of
pyrite and iron sulfide by manganese in marine
sediments. Geochimica et Cosmochimica Acta, 65:
915-922.
Schippers, A., and Jørgensen, B.B., 2002. Biogeochemistry of pyrite and iron sulfide oxidation in
marine sediments. Geochimica et Cosmochimica
Acta, 66: 85-92.
Schoonen, M.A.A., 2004. Mechanisms of sedimentary
pyrite formation. In: Amend, J.P., Edwards, K.J. and
Lyons, T.W. (eds), Sulfur Biogeochemistry – Past and
Present. Geological Society of America Special Paper
379, pp. 117-134.
Schouten, S., Eglington, T.I., Sinninghe Damsté, J.S. and
de Leeuw, J.W., 1995. Influence of sulfur crosslinking on the molecular size distribution of sulfurrich macromolecules in bitumen. In: Vairavamurthy,
References
Paytan, A., Kastner, M., Martin, E.E., MacDougall,
J.D., and Herbert, T., 1993. Marine barite as a monitor of seawater strontium isotope composition.
Nature, 366: 445-449.
Paytan, A., Kastner, M. and Chavez, F.P., 1996a.
Glacial to interglacial fluctuations in productivity in
the equatorial Pacific as indicated by marine barite.
Science, 274: 1355-1357.
Paytan, A., Moore, W.S. and Kastner, M., 1996b. Sedimentation rate as determined by
226 Ra activity in
marine barite. Geochimica et Cosmochi-mica Acta,
60: 4313-4319.
Paytan, A., Kastner, M., Campbell, D. and Thiemens,
M.H., 1998. Sulfur isotope composition of Cenozoic
seawater sulfate. Science, 282: 1459-1462.
Paytan, A., Mearon, S., Cobb, K. and Kastner, M., 2002.
Origin of marine barite deposits: Sr and S isotope
characterization. Geology, 30: 747-750.
Paytan, A., Martinez-Ruiz, F., Eagle, M., Ivy, A. and
Wankel, S.D., 2004. Using sulfur isotopes to
elucidate the origin of barite associated with high
organic matter accumulation events in marine
sediments. In: Amend, J.P., Edwards, K.J. and Lyons,
T.W. (eds), Sulfur Biogeochemistry – Past and
Present. Geological Society of America Special
Paper 379, pp. 151-160.
Poulton, S.W., Krom, M.D. and Raiswell, R., 2004. A
revised scheme for the reactivity of iron
(oxyhydr)oxides
towards
dissolved
sulfide.
Geochimica et Cosmochimica Acta, 68: 3703-3715.
Pyzik, A.J. and Sommer, S.E., 1981. Sedimentary iron
monosulfides: kinetics and mechanism of formation.
Geochimica et Cosmochimica Acta, 45: 687-698.
Rabus, R., Hansen, T., and Widdel, F., 2004.
Dissimilatory Sulfate- and Sulfur Reducing Prokaryotes. In: Dworkin, M. et al. (eds), The Prokaryotes: An Evolving Electronic Resource for the
Microbiological Community, 3rd edition, SpringerVerlag, New York, (http://link.springer-ny.com/link/
service/books/10125/).
Raiswell, R., 1982. Pyrite texture, isotopic composition
and the availability of iron. American Journal of
Science, 282: 1244-1265.
Raiswell, R., 1988. Chemical model for the origin of
minor limestone-shale cycles by anaerobic methane
oxidation. Geology, 16: 641-644.
Raiswell, R., and Canfield, D.E., 1998. Sources of iron
for pyrite formation in marine sediments. American
Journal of Science, 298: 219-245.
Raiswell, R., Canfield, D.E. and Berner, R.A., 1994. A
comparison of iron extraction methods for the
determination of degree of pyritization and the recognition of iron-limited pyrite formation. Chemical Geology, 111: 101-110.
Reeburgh, W.S., 1969. Observations of gases in
Chesapeake Bay sediments. Limnology and Oceanography, 14: 368-375.
Reeburgh, W.S., 1976. Methane consumption in Cariaco
Trench waters and sediments. Earth and Planetary
Science Letters, 47: 345-352.
Reeburgh, W.S., 1982. A major sink and flux control for
methane in sediments: Anaerobic consumption. In:
Fanning, K.A. and Manheim, F.T. (eds), The
dynamic environment. Heath, Lexington, MA, pp.
203-217.
Reeburgh, W.S., Whalen, S.C., and Alperin, M.J., 1993.
The role of methylotrophy in the global methane
budget. In: Murrell, J.C., and Kelly, D.P. (eds),
Microbial growth on C 1 compounds. Intercept,
Andover, UK, pp. 1-14.
Reitz, A., Hensen, C., Kasten, S., Funk, J. and de Lange,
G., 2004. A combined geochemical and rockmagnetic investigation of a redox horizon at the last
glacial/interglacial transition. Physics and Chemistry
of the Earth, 29: 921-931.
Rickard, D.T., 1975. Kinetics and mechanisms of pyrite
formation at low temperatures. American Journal of
Science, 275: 636-652.
Rickard, D. and Luther III, G.W., 1997. Kinetics of
pyrite formation by the H 2 S oxidation of iron(II)
monosulfide in aqueous solutions between 25 and
125°C: The rate equation. Geochimica et Cosmochimica Acta, 61: 115-134.
Rickard, D., Schoonen, M.A.A., Luther, G.W., 1995.
Chemistry of iron sulfides in sedimentary
environments. In: Vairavamurthy, M.A. and
Schoonen, M.A.A. (eds), Geochemical Transformations of Sedimentary Sulfur. ACS Symposium
Series 612, Washington DC, pp. 168-193.
Riedinger, N., 2005. Preservation and diagenetic
overprint of geochemical and geophysical signals
in ocean margin sediments related to depositional
dynamics. Berichte, 242, Fachbereich Geowissenschaften, Universität Bremen, 91 pp.
Riedinger, N., Pfeifer, K., Kasten, S., Garming, J.F.L.,
Vogt, C. and Hensen, C., 2005. Diagenetic alteration of magnetic signals by anaerobic oxidation
of methane related to a change in sedimentation
rate. Geochimica et Cosmochimica Acta, 69:
4 1 1 7 - 4 1 2 6 .
Roden, E.E., and Tuttle, J.H., 1992. Sulfide release from
estuarine sediments underlying anoxic bottom water.
Limnology and Oceanograpy 37: 725-738.
Rusch, A., Töpken, H., Böttcher, M.E., and Höpner, T.,
1998. Recovery from black spots: results of a
loading experiment in the Wadden Sea. Journal of
Sea Research, 40: 205-219.
Schink, B., 1997. Energetics of syntrophic cooperation
in methanogenic degradation. Microbiological and
Molecular Biological Reviews, 61: 262-280.
Schinzel, U., 1993. Laboratory experiments on early diagenetic reactions of iron(III) oxyhydroxides in marine
sediments (in German). Berichte, 36, Fachbereich
Geowissenschaften, Universität Bremen, 189 pp.
Schippers, A., 2004. Biogeochemistry of metal sulfide
oxidation in mining environments, sediments, and
soils. In: Amend, J.P., Edwards, K.J., and Lyons, T.W.
(eds), Sulfur biogeochemistry - Past and Present.
Geological Society of America Special Paper 379,
Boulder, Colorado, pp. 49-62
Schippers, A., and Jørgensen, B.B., 2001. Oxidation of
pyrite and iron sulfide by manganese in marine
sediments. Geochimica et Cosmochimica Acta, 65:
915-922.
Schippers, A., and Jørgensen, B.B., 2002. Biogeochemistry of pyrite and iron sulfide oxidation in
marine sediments. Geochimica et Cosmochimica
Acta, 66: 85-92.
Schoonen, M.A.A., 2004. Mechanisms of sedimentary
pyrite formation. In: Amend, J.P., Edwards, K.J. and
Lyons, T.W. (eds), Sulfur Biogeochemistry – Past and
Present. Geological Society of America Special Paper
379, pp. 117-134.
Schouten, S., Eglington, T.I., Sinninghe Damsté, J.S. and
de Leeuw, J.W., 1995. Influence of sulfur crosslinking on the molecular size distribution of sulfurrich macromolecules in bitumen. In: Vairavamurthy,
References