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Our research
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Ecological management
- Clothes, fibres and filters that reduce pollution by micro and nano debris
- In Bygone Dives: Exploring the use of recreational SCUBA diving photographs
- Restoring oyster reefs to NSW
- Living Seawalls
- Operation Posidonia: Healing old wounds by restoring an endangered seagrass in boat mooring scars
- Operation Crayweed: restoring Sydney’s underwater forests
- Project Restore: restoration of seascapes in Sydney Harbour
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Marine biotechnology and aquaculture
- Antibiotic resistance in the marine environment
- Priming fish with microbial communities to enhance health and digestibility of sustainable feeds
- Bio-prospecting marine microbial diversity for new antimicrobial drugs and bioactives
- Improving technologies for inland aquaculture in Papua New Guinea
- Improving the sustainability of rice-shrimp farming systems in the Mekong Delta, Vietnam
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Anthropogenic and climate change impacts and interactions
- Ecology and impacts of marine invaders
- Impacts of multiple stressors on marine communities
- Impacts of urbanisation on the diversity and functioning of coastal systems
- In the spotlight: impacts of artificial light at night on the marine environment
- Linking functional diversity to stress thresholds for coastal conservation
- Effects of climate change on Shark Bay microbial mats
- Adapting to coastal tropicalisation: ecosystem function implications
- Global threats to ocean forests: understanding impacts of heatwaves, herbivores and diseases in kelp ecosystems
- How to make reliable high-resolution future projections for coastal regions
- Marine Heatwaves in a changing world
- Clothes, fibres and filters that reduce pollution by micro and nano debris
- Coastal, regional and global oceanography
- Fisheries and coastal resource management
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Integrated micro-/macro-biology and ecology
- Coastal microbial observatories
- Functional diversity and redundancy of marine communities
- Microbial contribution to life in the deep sea
- The dynamics of evolution: How horizontal gene transfer drives the diversification and adaptation of complex, bacterial communities
- Probiotics for the ocean – how microbes can improve the health and performance of macroalgae
- Function and application of novel proteins from sponge symbionts
- Understanding disease in marine seaweeds: from molecular mechanisms to ecological consequences
- Understanding the role of antibiotic producing bacteria in the seaweed algal holobiont
- Wake interference by swimming crocodiles
- The effect of microbial diversity vs function on marine holobionts
- Understanding plant soil feedbacks control interactions between marine macrophytes
- Do microbes facilitate the range expansion of tropical fish into temperate systems?
- Science communication and outreach
- Solutions for estuarine and coastal stressors lab (SEACS Lab)
- Coastal and regional Oceanography lab
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Ecological management
- Study with us
- Giving
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- Home
- About us
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Our research
Ecological management
- Clothes, fibres and filters that reduce pollution by micro and nano debris
- In Bygone Dives: Exploring the use of recreational SCUBA diving photographs
- Restoring oyster reefs to NSW
- Living Seawalls
- Operation Posidonia: Healing old wounds by restoring an endangered seagrass in boat mooring scars
- Operation Crayweed: restoring Sydney’s underwater forests
- Project Restore: restoration of seascapes in Sydney Harbour
Marine biotechnology and aquaculture
- Antibiotic resistance in the marine environment
- Priming fish with microbial communities to enhance health and digestibility of sustainable feeds
- Bio-prospecting marine microbial diversity for new antimicrobial drugs and bioactives
- Improving technologies for inland aquaculture in Papua New Guinea
- Improving the sustainability of rice-shrimp farming systems in the Mekong Delta, Vietnam
Anthropogenic and climate change impacts and interactions
- Ecology and impacts of marine invaders
- Impacts of multiple stressors on marine communities
- Impacts of urbanisation on the diversity and functioning of coastal systems
- In the spotlight: impacts of artificial light at night on the marine environment
- Linking functional diversity to stress thresholds for coastal conservation
- Effects of climate change on Shark Bay microbial mats
- Adapting to coastal tropicalisation: ecosystem function implications
- Global threats to ocean forests: understanding impacts of heatwaves, herbivores and diseases in kelp ecosystems
- How to make reliable high-resolution future projections for coastal regions
- Marine Heatwaves in a changing world
- Clothes, fibres and filters that reduce pollution by micro and nano debris
Integrated micro-/macro-biology and ecology
- Coastal microbial observatories
- Functional diversity and redundancy of marine communities
- Microbial contribution to life in the deep sea
- The dynamics of evolution: How horizontal gene transfer drives the diversification and adaptation of complex, bacterial communities
- Probiotics for the ocean – how microbes can improve the health and performance of macroalgae
- Function and application of novel proteins from sponge symbionts
- Understanding disease in marine seaweeds: from molecular mechanisms to ecological consequences
- Understanding the role of antibiotic producing bacteria in the seaweed algal holobiont
- Wake interference by swimming crocodiles
- The effect of microbial diversity vs function on marine holobionts
- Understanding plant soil feedbacks control interactions between marine macrophytes
- Do microbes facilitate the range expansion of tropical fish into temperate systems?
- Study with us
- Giving
- News
- Opportunities

This project is appropriate for both honours/master (1 year) and PhD students (3.5 years).
Supervisors: Fabio Zanini, Amandine Schaeffer
Data Driven Biomedicine lab (http://fabilab.org, opens in a new window), and Coastal and Regional Oceanography lab (http://www.oceanography.unsw.edu.au, opens in a new window)
Project description:
Bluebottle jellyfish (Physalia sp) are a common sight off the coast of Eastern Australia and can sting swimmers when present on popular beaches. Within each individual, specialized cells called cnidocytes are able to inject the toxins into target organisms for defence or feeding purposes. Some species of nudibranches, such as the blue sea dragon (Glaucus atlanticus), can feed on bluebottles. Remarkably, sea dragons are not only immune to the venom, but they can incorporate cnidocytes into their own bodies, keep them alive for an extended period of time, and eventually activate their toxin release in a controlled manner to sting and capture prey. The genetic circuitry enabling this extreme and fascinating evolutionary adaptation is not understood. This project proposes to combine single cell transcriptomics with microscopy and data analytics to define the gene expression profile of cnidocytes in their original context and after incorporation by nudibranches. Briefly, we'll collect bluebottle jellyfish and blue sea dragons from the wild on the beach, dissociate them into single cell suspensions, isolate the cnidocytes using an automated micromanipulator, and perform single cell gene expression profiling to identify what genes are underlying the adaptation of toxin-secreting jellyfish cells to their new host. This project combines field collection, molecular biology, and data science, and will be embedded in multi-disciplinary research on the Bluebottle.
Skills you will learn:
This project is a fantastic opportunity to apply cutting-edge molecular techniques and data analysis to understand a key process in marine evolution. The student will be guided in all aspects.
Requirements:
The candidate should have a background in biomedicine, marine biology, or data science. We're looking for a motivated student, fast learning and passionate about science. Experience in programming (preferably Python) or wet lab experiments are a plus.
Contacts:
For inquiries write to fabio.zanini@unsw.edu.au, opens in a new window