All Stories

  1. Hidden cost of pH variability in seagrass beds on marine calcifiers under ocean acidification
  2. One hundred priority questions for advancing seagrass conservation in Europe
  3. Loss of POC and DOC on seagrass sediments by hydrodynamics
  4. Drones and machine-learning for monitoring dugong feeding grounds and gillnet fishing
  5. Small patches of eelgrass are effective for promoting biodiversity in restoration projects
  6. Seagrass roots effectively reduce erosion in sandy sediments
  7. Automated drone surveys for monitoring wildlife populations
  8. Coastal ecosystem engineers and their impact on sediment dynamics: Eelgrass–bivalve interactions under wave exposure
  9. Assessing Tolerance to the Hydrodynamic Exposure of Posidonia oceanica Seedlings Anchored to Rocky Substrates
  10. How Does Ocean Acidification Affect the Early Life History of Zostera marina? A Series of Experiments Find Parental Carryover Can Benefit Viability or Germination
  11. Coastal restoration success via emergent trait-mimicry is context dependent
  12. Novel approach to large‐scale monitoring of submerged aquatic vegetation: A nationwide example from Sweden
  13. Increased energy expenditure is an indirect effect of habitat structural complexity loss
  14. Major impacts and societal costs of seagrass loss on sediment carbon and nitrogen stocks
  15. Wind exposure and sediment type determine the resilience and response of seagrass meadows to climate change
  16. Low-cost wave mesocosm for studying aquatic ecosystems
  17. Microplastic retention by marine vegetated canopies: Simulations with seagrass meadows in a hydraulic flume
  18. Documenting Dugong Reproductive Behavior Using Drones
  19. Severe shifts of Zostera marina epifauna: Comparative study between 1997 and 2018 on the Swedish Skagerrak coast
  20. The influence of hydrodynamic exposure on carbon storage and nutrient retention in eelgrass (Zostera marina L.) meadows on the Swedish Skagerrak coast
  21. Mimicry of emergent traits amplifies coastal restoration success
  22. High Seasonal Variability in Sediment Carbon Stocks of Cold‐Temperate Seagrass Meadows
  23. Role of eelgrass on bed‐load transport and sediment resuspension under oscillatory flow
  24. The influence of hydrodynamics and ecosystem engineers on eelgrass seed trapping
  25. Beach-cast as biofertiliser in the Baltic Sea region-potential limitations due to cadmium-content
  26. Increased current flow enhances the risk of organic carbon loss from Zostera marina sediments: Insights from a flume experiment
  27. Water residence time controls the feedback between seagrass, sediment and light: Implications for restoration
  28. Dispersal of seagrass propagules: interaction between hydrodynamics and substratum type
  29. Local Regime Shifts Prevent Natural Recovery and Restoration of Lost Eelgrass Beds Along the Swedish West Coast
  30. Particle sources and transport in stratified Nordic coastal seas in the Anthropocene
  31. Eelgrass (Zostera marina) Seed Production in Swedish West Coast
  32. Seagrass blade motion under waves and its impact on wave decay
  33. Shore crab predation reduces eelgrass restoration success
  34. Assessing methods for restoration of eelgrass (Zostera marina L.) in a cold temperate region
  35. Challenges in Eelgrass Restoration: Seed Loss and Predation
  36. A Bayesian spatial approach for predicting seagrass occurrence
  37. Field observations of wave-induced streaming through a submerged seagrass (Posidonia oceanica) meadow
  38. Probabilistic mapping of Posidonia oceanica cover: A Bayesian geostatistical analysis of seabed images
  39. Effect of a seagrass (Posidonia oceanica) meadow on wave propagation
  40. Posidonia oceanica and Cymodocea nodosa seedling tolerance to wave exposure
  41. Assessment of substratum effect on the distribution of two invasive Caulerpa (Chlorophyta) species
  42. Experimental Evaluation of the Restoration Capacity of a Fish-Farm Impacted Area with Posidonia oceanica (L.) Delile Seedlings
  43. Wave‐induced velocities inside a model seagrass bed
  44. Wave energy determines the upper depth limit of seagrasses