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The Science

To protect and restore our lakes, we need to understand their current health and  how and why this has changed before and since human arrival. To identify changes we collect water and sediments from the lake.

All inputs into lakes eventually sink and combine to form sediment on the lakebed. These sediments are a treasure trove of information that scientists can use to understand how the health of the lake and surrounding land has changed through time. You can download a printable infographic that provides an overview of the importance of lakes and explores how sediment cores can be used to understand how and why the heath of a lake has changed.

Sediment cores

Sediments can be likened to the pages of a history book, continuously layering on top of one another recording environmental history, 24 hours a day, 7 days a week, year after year, for thousands of years. Everything that happens in or around the lake leaves a trace in the sediment.

Deceased lake organisms along with pollen, nutrients and toxins from the surrounding landscape end up on the lakebed (see figure above). By analysing each layer with scientific tools, researchers can start to understand how and why organisms and environments within and around a lake have changed.

The majority of Lakes380 sediment cores are sampled using a gravity corer. See this video to learn how the cores are collected. 

Field sampling

The Lakes380 field team goes to great lengths to collect the samples we need to analysis. It takes a team of up to six people, two 4WD vehicles loaded with equipment in addition to our much-loved boats Kea, Kihitara and Kotare. For remote and alpine lakes, we make use of helicopters.r

Learn more about field sampling
  • The Project
  • The Science
    • Field Sampling
    • Laboratory Analysis
    • Student Projects
  • Science Aims
  • Rohe Studies
    • Rangitīkei Iwi Rohe Study
    • Wairarapa Moana iwi rohe study
  • Virtual Experience
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  • The Team
    • Advisory Groups
    • Lakes380 Co-lead Institutes​
    • National Collaborators
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  • Partners
  • The Project
  • The Science
    • Field Sampling
    • Laboratory Analysis
    • Student Projects
  • Science Aims
  • Rohe Studies
    • Rangitīkei Iwi Rohe Study
    • Wairarapa Moana iwi rohe study
  • Virtual Experience
  • Social Science
  • Iwi Relationships
  • The Team
    • Advisory Groups
    • Lakes380 Co-lead Institutes​
    • National Collaborators
    • International Collaborators
  • Partners

Laboratory analysis

Once collected the samples are chilled and transported to various laboratories around New Zealand for analysis.

Learn more about sample analysis
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Lake Selfe

Arthurs Pass

Canterbury

Lake Kirkpatrick

Queenstown

Otago

Matthews Lagoon

Wairarapa

Wellington

Lake George

Invercargill

Southland

Lake Te Ku Utu

Cambridge

Waikato

L52064

Te Anau

Southland

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About
  • The Project
  • The Science
    • Field Sampling
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    • Student Projects
  • Science Aims
  • Rohe Studies
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    • Wairarapa Moana iwi rohe study
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Home

Our Lakes

  • All Lakes
  • Regions
    • Northland
    • Auckland
    • Waikato
    • Bay of Plenty
    • Hawke’s Bay
    • Taranaki
    • Manawatū/Whanganui
    • Wellington
    • Tasman
    • West Coast
    • Marlborough
    • Canterbury
    • Otago
    • Southland
  • Coastal Lakes
  • Lowland Lakes
  • Highland Lakes
  • Alpine Lakes

About

  • The Project
  • The Science
    • Field Sampling
    • Laboratory Analysis
    • Student Projects
  • Science Aims
  • Rohe Studies
    • Rangitīkei Iwi Rohe Study
    • Wairarapa Moana iwi rohe study
  • Virtual Experience
  • Social Science
  • Iwi Relationships
  • The Team
    • Advisory Groups
    • Lakes380 Co-lead Institutes​
    • National Collaborators
    • International Collaborators
  • Partners

Resources

  • Contact & Links
  • Blog, News & Publications
  • Video Gallery
  • Results
  • Glossary