All Stories

  1. Environmental Gradients Shape Fungal Diversity and Functional Traits in Arctic Biocrusts
  2. Host Identity Shapes Bacterial Community Structure and Their Metabolic Potential in Antarctic Terrestrial Ecosystem
  3. Altitude-Driven Variation in Fungal Diversity and Functional Traits in Arctic Biocrusts
  4. Polyphasic characterization and genomic insights of the cyanobacteria Aphanothece microscopica and A. stagnina from Southern Brazil with emphasis on fatty acid biosynthesis
  5. Detecting Environmental Stress In Situ Using Molecular Data: A Case Study with the Filamentous Green Alga Klebsormidium and Antarctic Biocrusts
  6. Summer and autumn photosynthetic activity in High Arctic biological soil crusts and their winter recovery
  7. Unveiling the molecular mechanisms of the stress resilience of High Arctic Klebsormidium flaccidum : a multifaceted study
  8. Detecting Environmental Stress In Situ Using Molecular Data: A Case Study with the Filamentous Green Alga <em>Klebsormidium </em>and Antarctic Biocrusts
  9. Role of Climate and Edaphic Factors on the Community Composition of Biocrusts Along an Elevation Gradient in the High Arctic
  10. Microbial response to seasonal variation in arctic biocrusts with a focus on fungi and cyanobacteria
  11. Role of Climate and Edaphic Factors on the Community Composition of Biocrusts Along an Elevation Gradient in the High Arctic
  12. Microalgal Diversity and Molecular Ecology: A Comparative Study of Classical and Metagenomic Approaches in Ponds of the Eifel National Park, Germany
  13. Microalgal Diversity and Molecular Ecology: A Comparative Study of Classical and Metagenomic Approaches in Ponds of the Eifel National Park, Germany
  14. Microbial community composition of terrestrial habitats in East Antarctica with a focus on microphototrophs
  15. Metagenomic Analysis of Antarctic Biocrusts Unveils a Rich Range of Cold-Shock Proteins
  16. Metagenomics Provides a Deeper Assessment of the Diversity of Bacterial Communities in Polar Soils Than Metabarcoding
  17. Biocrusts from Iceland and Svalbard: Does microbial community composition differ substantially?
  18. Temperature- and light stress adaptations in Zygnematophyceae: The challenges of a semi-terrestrial lifestyle
  19. Desiccation tolerance in streptophyte algae and the algae to land plant transition: evolution of LEA and MIP protein families within the Viridiplantae
  20. Metatranscriptomic and metabolite profiling reveals vertical heterogeneity within a Zygnema green algal mat from Svalbard (High Arctic)
  21. Biodiversity of biological soil crusts from the Polar Regions revealed by metabarcoding
  22. Biological soil crusts of Arctic Svalbard and of Livingston Island, Antarctica
  23. Desiccation tolerance in the streptophyte green alga Klebsormidium: The role of phytohormones
  24. The Origin and Evolution of the Plant Cell Surface: Algal Integrin-Associated Proteins and a New Family of Integrin-Like Cytoskeleton-ECM Linker Proteins
  25. Transcriptomics of Desiccation Tolerance in the Streptophyte Green Alga Klebsormidium Reveal a Land Plant-Like Defense Reaction
  26. The Contractile Vacuole as a Key Regulator of Cellular Water Flow in Chlamydomonas reinhardtii
  27. Snow ball earth and the split of Streptophyta and Chlorophyta
  28. 5 Evolution of vacuolar targeting in algae
  29. 6 Contractile vacuole s in green algae – structure and function
  30. The SEC6 protein is required for function of the contractile vacuole inChlamydomonas reinhardtii
  31. Origin of land plants: Do conjugating green algae hold the key?
  32. The System of Contractile Vacuoles in the Green Alga Mesostigma viride (Streptophyta)
  33. Evolution of vacuolar targeting in algae
  34. Streptophyte algae and the origin of embryophytes
  35. Chlamydial genes shed light on the evolution of photoautotrophic eukaryotes
  36. Gain and loss of polyadenylation signals during evolution of green algae
  37. Function and Evolution of the Vacuolar Compartment in Green Algae and Land Plants (Viridiplantae)
  38. Phylogenetic Analyses of Nuclear, Mitochondrial, and Plastid Multigene Data Sets Support the Placement of Mesostigma in the Streptophyta
  39. The GapA/B Gene Duplication Marks the Origin of Streptophyta (Charophytes and Land Plants)
  40. EST analysis of the scaly green flagellate Mesostigma viride (Streptophyta): Implications for the evolution of green plants (Viridiplantae)
  41. Inhibition of Contractile Vacuole Function by Brefeldin A
  42. Inhibition of Contractile Vacuole Function by Brefeldin A
  43. PREPARATION AND CHARACTERIZATION OF PROTOPLASTS OBTAINED FROM THE PRASINOPHYTE SCHERFFELIA DUBIA (CHLOROPHYTA)1
  44. A STUDY OF CELL WALL AND FLAGELLA FORMATION DURING CELL DIVISION IN THE SCALY GREEN ALGA, SCHERFFELIA DUBIA (CHLOROPHYTA)1
  45. Structure of N‐glycosidic Carbohydrates of Secretory Proteins of Tetrahymena thermophila
  46. Analysis of Expressed Sequence Tags (ESTs) from the Scaly Green Flagellate Scherffelia dubia Pascher emend. Melkonian et Preisig
  47. Flagellar Membrane Proteins of Tetraselmis striata Butcher (Chlorophyta)
  48. The Golgi apparatus of the scaly green flagellate Scherffelia dubia : uncoupling of glycoprotein and polysaccharide synthesis during flagellar regeneration
  49. V-ATPase is a Major Component of the Golgi Complex in the Scaly Green Flagellate Scherffelia dubia
  50. THE CELL WALL (THECA) OF TETRASELMIS STRIATA (CHLOROPHYTA): MACROMOLECULAR COMPOSITION AND STRUCTURAL ELEMENTS OF THE COMPLEX POLYSACCHARIDES
  51. Scale-associated glycoproteins of Scherffelia dubia (Chlorophyta) form high-molecular-weight complexes between the scale layers and the flagellar membrane
  52. Lectin binding of flagellar scale-associated glycoproteins in different strains ofTetraselmis(chlorophyta)
  53. Anterograde transport of algal scales through the Golgi complex is not mediated by vesicles
  54. Intra‐Golgi Transport Mediated by Vesicles?
  55. The structure of an acidic trisaccharide component from a cell wall polysaccharide preparation of the green alga Tetraselmis striata Butcher
  56. Structure, composition, and biogenesis of prasinophyte cell coverings
  57. 2‐KETO‐SUGAR ACIDS IN GREEN FLAGELLATES: A CHEMICAL MARKER FOR PRASINOPHYCEAN SCALES1,2
  58. Scale formation in algae
  59. Isolation, purification, and characterization of flagellar scales from the green flagellateTetraselmis striata (Prasinophyceae)
  60. Identification of 3‐deoxy‐manno‐2‐octulosonic acid, 3‐deoxy‐5‐O‐methyl‐manno‐2‐octulosonic acid and 3‐deoxy‐lyxo‐2‐heptulosaric acid in the cell wall (theca) of the green alga Tetraselmis striata Butcher (Prasinophyceae)