Robohub.org
 

Into the deep: Underwater machines keep an eye on climate change


by
26 January 2017



share this:
Image courtesy of FIXO3

Image courtesy of FIXO3

The shells on crustaceans and molluscs off the Norwegian Atlantic coast are not as thick as they once were. This is because of ocean acidification, where increased carbon dioxide (CO2) in the atmosphere is absorbed by water, which raises its acidity. Researchers on the EU-funded FixO3 project, which finishes in 2017, are able to keep track of the growing CO2 and rising acidity levels in the water where these creatures live thanks to a device in the Norwegian Sea which collects data round the clock from as deep as 2 000 metres.


Image courtesy of EMSO

Image courtesy of EMSO

Similar tools are being set up all around Europe as part of the European Multidisciplinary Seafloor and water-column Observatory (EMSO), which is part of the EU’s centrally coordinated research infrastructures, to measure how human activities affect our oceans and worsen climate change. As well as providing food and producing oxygen through the organisms that live within them, our oceans and seas regulate our climate by transporting warm water from the equator to the poles and cold water in the other direction. Researchers are using sophisticated machines to track how our oceans are changing, from small cameras that can record high-definition videos of the ocean floor, to others that can detect earthquakes, measure temperature and pressure, and record sounds.


Image courtesy of EMSO

Image courtesy of EMSO

Data is transmitted from machines at the bottom of the ocean either through fibre optic cables or via buoys on the surface, which are linked to satellites. Scientists on land can then track this data, either in real time or with a delay depending on the system, and monitor pollution, climate change and even tsunamis over time. While the machines do require regular maintenance, it means that researchers are able to study the long-term health of our oceans while cutting down on costly expeditions.


Image courtesy of EMSO

Image courtesy of EMSO

Some of the findings to come out of these observatories are expected to be included in future reports by the UN’s influential Intergovernmental Panel on Climate Change. EMSO’s tools, such as one monitoring seismic activity and pressure on hydrothermal vents in the Mid-Atlantic Ridge, will also help the EU know if it has reached its goals of improving the health of Europe’s seas by 2020, as set out in the EU’s Marine Directive. EMSO is also the European counterpart of initiatives in the US, Japan, China, Australia and other countries and will help with international collaboration in the Global Ocean Observing System, a worldwide effort to track changes in our waters.


Image courtesy of EMSO

Image courtesy of EMSO

Similar tools are being set up all around Europe as part of the European Multidisciplinary Seafloor and water-column Observatory (EMSO), which is part of the EU’s centrally coordinated research infrastructures, to measure how human activities affect our oceans and worsen climate change. As well as providing food and producing oxygen through the organisms that live within them, our oceans and seas regulate our climate by transporting warm water from the equator to the poles and cold water in the other direction. Researchers are using sophisticated machines to track how our oceans are changing, from small cameras that can record high-definition videos of the ocean floor, to others that can detect earthquakes, measure temperature and pressure, and record sounds.

This article was first published on Horizon: The EU research and innovation magazine. Click here to view the original article.

 


If you liked this article, you may also be interested in:

See all the latest robotics news on Robohub, or sign up for our weekly newsletter.



tags: , , , , , , ,


Horizon Magazine brings you the latest news and features about thought-provoking science and innovative research projects funded by the EU.
Horizon Magazine brings you the latest news and features about thought-provoking science and innovative research projects funded by the EU.

            AUAI is supported by:



Subscribe to Robohub newsletter on substack



Related posts :

Robotics roadmaps from around the world

We embark on a tour into some of the recent and prominent robotics roadmaps from around the world.

A ‘5-in-1’ seed-sized surgical robot

Mini robot can move, cut tissue, release drugs, grip and store samples, and generate heat wirelessly

AI agents create virtual playgrounds to help robots get crucial training data

  07 Aug 2026
“SceneSmith” system uses collaborative AI agents to create realistic 3D environments of places like kitchens, hotels, and living rooms, where robots can simulate everyday chores.

Robots in society, business and culture: July 2026

A round up of robotics stories in a new monthly series from IEEE RAS.

Simulated zebrafish and a vision-equipped robotic fish reveal how the body shapes brain circuits

Researchers look to the fish brain to create a robotic zebrafish that can autonomously swim upstream.

Researchers develop modular nanorobot

  31 Jul 2026
A team at the University of Basel has developed a versatile nanorobot with propulsion and payload modules.

Surviving the paper deluge: a one-year study in learning from demonstration

With the explosion of robotics research, staying current in fields like Learning from Demonstration is a monumental challenge.

Soft robotic heart offers new way to study disease and test life-saving devices

Researchers have developed a soft robotic model of the human heart that can mimic disease and provide a realistic environment for testing the next generation of cardiac devices.



AUAI is supported by:







Subscribe to Robohub newsletter on substack




 















©2026.05 - Association for the Understanding of Artificial Intelligence