Navigating the Future: Exploring Emerging Technologies in Marine Conservation
- henry belfiori
- Feb 16, 2024
- 10 min read
Innovation ahoy!
Welcome aboard, fellow ocean enthusiasts. As we stand on the brink of a pivotal moment in marine conservation, it's clear that our oceans need our urgent attention and innovative solutions fast. In this blog series, we're embarking on a voyage into the heart of marine conservation, where technology emerges as a beacon of hope. We'll explore some of the latest advancements in oceanic innovation, from satellite imaging to snot collecting drones, and their pivotal role in preserving our precious marine ecosystems. But we're not merely scratching the surface; we're diving deep into how the impact of these technologies is measured in our next post. Understanding their effectiveness is not just about data – it's about the use of it to drive investment, foster innovation, and ultimately, help save our oceans and communities. So join us as we navigate the seas of change, uncovering the power of technology to shape a brighter future for our oceans and all who depend on them.

Beacons of hope: it is not all doom and gloom..
Plastics choke our seas, toxins poison marine life, and coral reefs face bleaching at an alarming rate. Overfishing depletes fish stocks, disrupting entire ecosystems, while destructive fishing practices wreak havoc on fragile habitats. Habitat destruction, from coastal development to bottom trawling, further exacerbates the loss of biodiversity. And looming over all is the spectre of climate change, with rising sea temperatures, ocean acidification, and extreme weather events negatively impacting marine ecosystems worldwide. However, amidst these challenges lies a beacon of hope: innovation. With the power of technology and human ingenuity, we have the opportunity to transform the future of marine conservation. Together, we can embark on a journey of discovery and innovation, forging a path towards a more sustainable and resilient future for our oceans and our species. The next section will highlight some recent technologies fighting for our futures.
Discovering our oceanic heroes
In the context of marine conservation, "emerging technologies" refer to innovative tools and methods that are being developed or adapted to address challenges facing our oceans. These technologies leverage cutting-edge advancements to enhance our understanding of marine ecosystems, improve conservation efforts, and drive sustainable practices.
1. Remote Sensing and Satellite Imaging:
Remote sensing technologies, including satellite imaging, allow us to monitor vast oceanic areas from above. These tools provide valuable data on ocean temperature, sea surface conditions, and marine habitats, enabling scientists to track changes over time and identify areas of concern.
2. Artificial Intelligence and Machine Learning:
Artificial intelligence (AI) and machine learning (ML) algorithms are revolutionising marine conservation by analysing vast amounts of data with unprecedented speed and accuracy. These technologies can detect patterns, identify species, and predict environmental changes, helping researchers make more informed decisions and develop targeted conservation strategies.
3. Autonomous Vehicles and Marine Robotics (e.g., Underwater Drones):
Marine robotics, including autonomous underwater vehicles (AUVs) and remotely operated vehicles (ROVs), are revolutionising marine exploration and conservation efforts. These robotic platforms can operate in extreme conditions and explore inaccessible depths, collecting data on marine biodiversity, habitats, and environmental parameters.
AUVs are equipped with sensors and navigational systems that allow them to autonomously navigate underwater, collecting data on ocean currents, temperature, salinity, and marine life.
By deploying marine robotics, scientists can conduct detailed surveys of marine ecosystems, monitor changes over time, and assess the impacts of human activities on marine biodiversity. These technologies enable researchers to gather data with unprecedented precision and resolution, providing valuable insights into ecosystem dynamics and informing conservation strategies.
Furthermore, the development of advanced sensors and imaging technologies for marine robotics has opened up new possibilities for studying the ocean environment. High-resolution cameras, sonar systems, and acoustic sensors allow researchers to capture detailed images and data from the seafloor, revealing previously unseen features and habitats.
4. Bio-inspired Technologies:
Bio-inspired technologies draw inspiration from nature to develop innovative solutions for marine conservation. Examples include underwater robots modelled after marine animals, biomimetic materials for sustainable aquaculture, and bio-inspired sensors for environmental monitoring. These technologies leverage nature's design principles to create efficient and sustainable solutions for ocean challenges.
5. Ocean Data Analytics Platforms:
Ocean data analytics platforms integrate diverse sources of oceanographic data, including satellite observations, sensor networks, and research expeditions. These platforms utilise advanced analytics and visualization techniques to analyse complex datasets, identify trends, and derive actionable insights for marine conservation and management. By harnessing the power of big data, these platforms empower scientists, policymakers, and stakeholders to make informed decisions and drive positive change in marine ecosystems.
6. Environmental DNA (eDNA) Analysis:
Environmental DNA (eDNA) analysis refers to genetic material shed by organisms into their environment, such as skin cells, faeces, or mucus. By extracting and analysing eDNA from seawater or sediment samples, scientists can detect the presence of species without directly observing or capturing them.
This non-invasive method offers numerous advantages for monitoring marine biodiversity. eDNA analysis can detect a wide range of species, from microscopic plankton to elusive marine mammals, providing a comprehensive picture of ecosystem health. Moreover, eDNA surveys can cover large areas quickly and cost-effectively, making them particularly useful for assessing biodiversity in remote or inaccessible regions.
In addition to species detection, eDNA analysis can provide valuable insights into ecosystem dynamics, invasive species management, and habitat monitoring. By tracking changes in eDNA over time, scientists can monitor population trends, assess the effectiveness of conservation measures, and identify emerging threats to marine biodiversity.
The integration of eDNA analysis with other emerging technologies, such as remote sensing and artificial intelligence, holds great promise for advancing marine conservation efforts. This along other tech can help create more accurate models, predict future ecosystem changes, and guide conservation strategies in a rapidly changing world.

How emerging technologies can help us:
Emerging technologies are revolutionising marine conservation efforts by providing innovative solutions to address key challenges facing our oceans. These technologies are being applied in diverse ways to monitor and protect marine ecosystems, from tracking marine species to engaging the public in conservation initiatives. Below are some applications to save our skin (and scales):
Monitoring and Tracking Marine Species:
Satellite tracking tags and acoustic telemetry systems are used to monitor the movements and behaviour of marine species such as whales, sharks, and sea turtles. These technologies provide valuable data on migration patterns, habitat use, and population dynamics, helping researchers to better understand and protect these iconic species.
Mapping and Assessing Marine Habitats:
Remote sensing technologies, including aerial drones and satellite imagery, are used to map and assess marine habitats such as coral reefs, seagrass beds, and mangrove forests. These tools provide detailed information on habitat structure, biodiversity, and ecosystem health, guiding conservation efforts and informing marine spatial planning initiatives.
Detecting and Mitigating Pollution:
Remote sensing and sensor networks are deployed to detect and monitor pollution in marine environments, including oil spills, plastic debris, and chemical contaminants. Autonomous underwater vehicles (AUVs) equipped with sensors can survey large areas of ocean, identifying sources of pollution and guiding clean up efforts.
Predicting and Managing the Impacts of Climate Change:
Climate models and predictive analytics are used to forecast the impacts of climate change on marine ecosystems, including ocean acidification, sea level rise, and changes in ocean temperature. These tools help scientists and policymakers to develop adaptive management strategies.
Enhancing Marine Protected Area Management:
Geographic information systems (GIS) and spatial analysis tools are used to design and manage marine protected areas (MPAs) effectively. These technologies enable researchers to identify areas of high biodiversity, assess threats to marine ecosystems, and prioritize conservation actions within MPAs.
Supporting Sustainable Fisheries Management:
Electronic monitoring systems and data analytics platforms are used to improve the sustainability of fisheries management practices. These technologies provide real-time data on fishing activities, catch composition, and bycatch rates, enabling fisheries managers to make informed decisions and implement science-based regulations.
Facilitating Public Engagement and Citizen Science Initiatives:
Mobile apps, social media platforms, and online mapping tools are used to engage the public in marine conservation efforts and citizen science initiatives. These technologies enable individuals to report sightings of marine species, participate in research projects, and contribute to conservation monitoring efforts, fostering a sense of stewardship and collective action for the oceans.
Improving Aquatic Invasive Species Detection and Control:
Environmental DNA (eDNA) analysis and genetic sequencing techniques are employed to detect and monitor invasive species in marine ecosystems. By analysing water samples for traces of invasive species DNA, scientists can identify potential invaders early and implement targeted control measures to prevent their spread and minimize ecological impacts.
Implementing Blockchain Technology for Seafood Traceability:
Blockchain technology is utilised to enhance transparency and traceability in the seafood supply chain. By recording key information such as catch location, fishing methods, and handling practices on a secure and immutable ledger, blockchain platforms enable consumers to verify the authenticity and sustainability of seafood products.
Deploying Marine Bioremediation Techniques:
Bioremediation methods harness the natural abilities of microorganisms to degrade pollutants in marine environments. Bioremediation technologies such as bioaugmentation and bio stimulation are used to treat contaminated sediments, oil spills, and wastewater discharges, offering eco-friendly solutions for restoring the health of marine ecosystems and mitigating the impacts of pollution.
Stories of Humans winning
Ocean Cleanup’s System 002: In 2023, The Ocean Cleanup successfully deployed System 002, an autonomous floating barrier designed to capture plastic debris from the Great Pacific Garbage Patch. This innovative technology uses ocean currents to concentrate and collect plastic waste, reducing its impact on marine ecosystems. Lessons learned from this project can inform future large-scale cleanup efforts.
AI-Powered Whale Monitoring: In collaboration with conservation organizations, Google’s AI for Social Good team developed an AI model to identify and track individual humpback whales using satellite imagery. This technology enables real-time monitoring of whale populations, helping researchers understand migration patterns and protect these majestic creatures.
AI and Satellite for Illegal Fishing Detection: The ground-breaking study, led by Global Fishing Watch, uses machine learning and satellite imagery to create the first global map of large vessel traffic and offshore infrastructure. The analysis reveals that about 75 percent of the world’s industrial fishing vessels are not publicly tracked, with much of that fishing taking place around Africa and south Asia. More than 25 percent of transport and energy vessel activity are also missing from public tracking systems.
Ocean Health Monitoring with Drones: Ocean Alliance, in partnership with Olin College of Engineering, developed a drone called “SnotBot” that collects blow samples from whales. These samples provide valuable information about whale health, stress levels, and exposure to pollutants. By using drones, researchers can monitor ocean health more efficiently and non-invasively.
Challenges and Limitations
While emerging technologies hold great promise for advancing marine conservation efforts, their adoption and implementation are not without challenges and limitations. In this section, we discuss several key obstacles that must be addressed to maximize the effectiveness and impact of these technologies in marine conservation.
1. Technological Limitations: Emerging technologies often face barriers related to cost, complexity, and data quality. High upfront costs and ongoing maintenance expenses may limit the accessibility of these technologies, particularly for organizations with limited resources. Additionally, the complexity of implementing and managing advanced technologies, such as remote sensing systems or autonomous vehicles, can pose technical challenges for users.
2. Regulatory Hurdles: Permitting processes for deploying technologies such as drones or underwater vehicles in marine environments may be complex and time-consuming, leading to delays in project implementation. Additionally, concerns over data privacy, intellectual property rights, and liability issues may require careful navigation.
3. Ethical Considerations: Ethical considerations related to privacy, data security, and environmental impact must be carefully addressed when deploying emerging technologies in marine conservation.
4. Capacity-Building and Training Needs: Building capacity and providing training for stakeholders to effectively utilise emerging technologies is essential for their successful implementation in marine conservation. Many organisations may lack the necessary technical expertise and skills to operate and maintain advanced technologies, highlighting the need for training programs and capacity-building initiatives. Additionally, fostering collaboration and knowledge-sharing networks can help to bridge gaps in expertise and promote the adoption of best practices in technology-enabled conservation.
5. Ensuring Equitable Access and Benefits: Ensuring equitable access to emerging technologies and equitable distribution of benefits is critical for promoting inclusive and sustainable marine conservation efforts. Limited access to technology and resources may exacerbate existing inequalities and disparities, particularly in marginalised or underserved communities. Addressing barriers to access, such as affordability, infrastructure limitations, and digital literacy, is essential for ensuring that all stakeholders have the opportunity to participate in and benefit from technology-enabled conservation initiatives. Additionally, fostering partnerships and collaborations with local communities and indigenous peoples can help to ensure that conservation efforts respect and incorporate traditional knowledge, values, and practices.
By addressing some of the challenges and limitations explored, we can start to unlock the full potential of emerging technologies to drive positive change and transform the future of marine conservation. Collaboration, innovation, Impact and a commitment to inclusivity will be essential to overcoming these obstacles and harnessing the power of technology for the benefit of our oceans and all who depend on them.
Future Directions, Impact and Conclusions
As we peer into the future, the promise of emerging technologies in marine conservation illuminates a path towards innovative solutions and collaborative endeavours among diverse stakeholders. Advancements in sensor technology offer the potential for unprecedented insights into marine ecosystems, enabling precise monitoring and data collection. Artificial intelligence and machine learning algorithms hold the capacity to extract valuable patterns and insights from complex datasets, aiding in predictive modelling and informed decision-making. Additionally, the integration of autonomous systems and advanced communication tools enhances the capability for real-time monitoring and management of marine environments. However, amidst this optimism, it's imperative to emphasise the barriers and importance of quantifying the impact of these technologies.
Robust metrics will serve as essential tools for evaluating conservation efficacy and guiding strategic interventions. The ability to measure impact effectively is not only crucial for evaluating conservation outcomes but also for attracting capital and fostering the growth of start-ups in the space. Impact metrics serve as a compelling narrative for investors, demonstrating the tangible benefits and returns on investment associated with innovative technologies. By quantifying the environmental, social, and economic impacts of these technologies, start-ups can effectively communicate their value proposition to potential investors and stakeholders. More on this topic will be discussed in our next blog!

Call to Action:
Please share your thoughts on this posts in a DM or comment!! Any questions, experiences, or reccos related to the post/Oceantech/Life are more than welcome and even encouraged!!! Your insights and perspectives contribute to a richer dialogue and inspire further exploration into this important topic.
In the currents of innovation, we find hope for our oceans, yet it's through steadfast effort and unwavering determination that we navigate towards a brighter tomorrow.
Sources
Pizarro, O. and Pace, L. eds., 2021. Emerging Technologies With High Impact for Ocean Sciences, Ecosystem Management, and Environmental Conservation.
Acoustic Detection of Humpback Whales Using a Convolutional Neural Network – Google Research Blog




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