Preface | |
Production of DMS by Marine Phytoplankton | p. 1 |
Assessment of the Role of Zooplankton in the Cycling of DMSP and DMS in the Water Column During Eumeli-4 (France - JGOFS) | p. 15 |
The Cycling of Sulfur in Surface Seawater During PSI-3 | p. 21 |
Ecophysiology of Ice Algae (Antarctica): Dimethylsulfoniopropionate Content and Release of Dimethylsulfide During Ice Melt | p. 23 |
Isolation of Marine Dimethylsulfide-Oxidizing Bacteria | p. 37 |
Aspects of the Biogeochemistry of Dimethylsulfide (DMS) and Dimethylsulfopropionate (DMSP) at an Antarctic Coastal Site | p. 43 |
The Production of DMS by a Plankton Community: A Mesocosm Experiment | p. 53 |
A Model of Dimethylsulphide Production During a Phytoplankton Bloom | p. 63 |
Dimethylsulfide Field Measurements | p. 83 |
Dimethylsulfide and Aerosol Measurements at Ross Island, Antarctica | p. 85 |
Measurements of Atmospheric and Seawater DMS Concentrations in the Atlantic, the Arctic and Antarctic Region | p. 95 |
Biogenic Sulphur in the Marine Boundary Layer of the Arctic the International Arctic Ocean Expedition, 1991 | p. 103 |
Measurement of Dimethylsulfide, Sulfur Dioxide, Methanesulfonic Acid and Non Sea Salt Sulfate at Cape Grim Baseline Station | p. 117 |
Caracterization of Parameters Controlling Atmospheric Concentrations of Biogenic Dimethylsulphide Near a Coastal Algae Field | p. 129 |
Dimethylsulphide Measurements at Baring Head, New Zealand | p. 143 |
The Role of Methanesulphonic Acid in Snow Samples from Terra Nova Bay (Antarctica) | p. 153 |
Preliminary Data on DMS Concentration in Seawater Samples Collected from the La Spezia Gulf (Ligurian Sea) | p. 163 |
Dimethylsulphide and Other Volatile Organic Sulphur Compounds in Some Neglected Ecosystems: A Study in Evaporitic Environments and in Sulphate-Rich Karstic Lakes | p. 173 |
Stable Sulfur Isotope Ratios: Source Indicators | p. 183 |
The Atmospheric Oxidation of Dimethylsulfide: Elementary Steps in a Complex Mechanism | p. 185 |
FT-IR Product Study of the Photolysis of CH[subscript 3]SSCH[subscript 3]: Reactions of the CH[subscript 3]S Radical | p. 197 |
Mechanistic Studies of the OH-Initiated Oxidation of Dimethylsulfide | p. 211 |
Overview and Atmospheric Significance of the Results from Laboratory Kinetic Studies Performed within the CEC Project "Oceano-No[subscript X]" | p. 223 |
Field Studies of Atmospheric DMS Chemistry Using Selected Ion Chemical Ionization Mass Spectrometry | p. 239 |
Kinetic and Mechanistic Study of the Reaction of Atomic Chlorine with Dimethylsulfide | p. 243 |
Production of Peroxy-Radicals in the DMS Oxidation During Night-Time | p. 251 |
Laboratory and Modelling Studies of the Formation of a Stable Intermediate in the Night-Time Oxidation of DMS | p. 261 |
Do Dimethylsulphide Emissions from the North Atlantic Contribute to Rainwater Acidity and the Atmospheric Sulphur Burden in the UK? | p. 273 |
Gas-to-Particle Conversion and CCN Production | p. 275 |
Pacific Marine Aerosol:Equatorial Gradients in Sulfate, Ammonium and Chlorophyll | p. 287 |
Formation and Distribution of Cloud Condensation Nuclei in the Marine Environment | p. 297 |
Are Dimethylsulfide and Condensation Nuclei Connected Over the Tropical Northeastern Atlantic Ocean? | p. 303 |
Cloud Condensation Nuclei from Dimethylsulphide in the Natural Marine Boundary Layer: Remote vs. In-Situ Production | p. 311 |
Equatorial Convection as a Source of Tropospheric Nuclei Over the Remote Pacific | p. 323 |
Relationship Between DMS-Derived Particulate Mass, Particle Surface Area, and CN and CCN Number Concentrations | p. 331 |
Atmospheric Concentration of DMS and Its Oxidation Products Estimated in a Global 3-D Model | p. 333 |
Recent Field Studies of Sulfur Gases; Particles and Clouds in Clean Marine Air and Their Significance with Respect to the DMS-Cloud-Climate Hypothesis | p. 345 |
Modelling of the Sulphur Cycle. From DMS to Cloud Particles | p. 355 |
Model Study of the Ratio Between Methanesulphonic Acid (MSA) and Non Sea Salt-Sulphate in Coastal Air | p. 375 |
A Physical Receptor Model Applied to Aerosol Data from Northeastern Greenland | p. 385 |
Recognition and Inventory of Oceanic Clouds from Satellite Data Using an Artificial Neural Network Technique | p. 393 |
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