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Shocking Artificial Muscles! - Robin Milward Cooney

University of Auckland
2026
underwater robotics
artificial muscles
soft robotics
bioinspired robotics
Biomimetics
Electrostatic Actuators
Electroactive Polymers
Marine Robotics
Underwater Vehicles
Autonomous Underwater Vehicles
AUV
Robot Design
Marine Engineering
Ocean Technology
robotics
artificial intelligence
environmental monitoring
Reef Monitoring
Coral Reefs
Invasive Seaweed
marine conservation
Underwater Infrastructure
Soft Actuators
Electrostatics
Polymer Engineering
Fluid Mechanics
Bioinspired Engineering
Shark-Inspired Robotics
Sixgill Shark
Sustainable Robotics
ocean science
Mechatronics
engineering research
Robotic Actuation
Underwater Exploration
marine ecosystems
robotics research
Soft Materials
Future Robotics
Nature-Inspired Design

This research develops electrostatic artificial muscles for underwater robots inspired by the movement of fish and sharks. Unlike noisy propeller-driven systems, these soft actuators enable quieter, more efficient swimming that minimises disturbance to marine ecosystems, offering a promising alternative for environmental monitoring, reef surveys, and underwater infrastructure inspection.

Uncovering the Ocean's Hidden Heroes - Emma McGuigan

University of Auckland
2026
Zooplankton
marine biology
Oceanography
marine ecology
Plankton
Copepods
Amphipods
Daily Vertical Migration
Marine Food Web
climate change
Ocean Ecosystems
biodiversity
Rangitāhua
Kermadec Islands
Aotearoa
New Zealand
Ngāti Kuri
Indigenous knowledge
marine conservation
ocean conservation
fisheries
Coral Reefs
Humpback Whales
Underwater Acoustics
Hydroacoustics
microscopy
Marine Research
Biological Oceanography
Ecosystem Monitoring
Pelagic Ecology
climate adaptation
ocean science
marine biodiversity
environmental research
Ocean Health
Marine Animals
Food Availability
Ocean Monitoring
Ecological Research
Conservation Science

This research investigates the diversity and behaviour of zooplankton around Rangitāhua, Aotearoa New Zealand. By combining microscopy and underwater acoustics, it identifies species and tracks their daily vertical migrations. The findings will improve understanding of marine ecosystems, climate change impacts, and support Ngāti Kuri's stewardship of this culturally significant region.

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