Marauder Robotics: Marauder ONE (M1)
Building robot technologies to accelerate ocean ecosystem restoration and maintain balance
Hear the Pitch
The Problem
Kelp forests, some of the earth’s most dynamic ecosystems, are in decline partially due to unsustainable sea urchin populations, which eat kelp. The decline in kelp adversely impacts ocean acidity, biodiversity, coastal erosion, and does extensive economic damage to fisheries. Yet current restoration methods involve human divers, which is dangerous, costly, and unscalable.
The Solution
To address this issue, Marauder Robotics builds and deploys an underwater robot that automates urchin management, eliminating the need for human divers. The robot uses machine learning to identify and remove specific species from the ocean—helping to manage ocean prey and predator populations. It also continuously monitors the restoration area, providing near real-time environmental geospatial data.
By replacing human divers with a bot, Marauder Robotics provides a cost-effective, safe, and scalable alternative to ocean restoration and underwater monitoring efforts. Marauder Robotics technologies will initially help keep urchin populations in check, allowing kelp forests to expand and enabling ocean ecosystems to achieve the level of biodiversity intended by nature.
Market Opportunity
- The unmanned underwater vehicle market is projected to grow from $2.7 billion in 2017 to $5.2 billion by 2022, and the coastal surveillance market is expected to exceed $35.5 billion by 2022.
- Diver restoration can cost up to $375,000 per acre, compared to only $40,000 per acre per year with Marauder Robotics.
- In comparison to a human diver, the Marauder Robotics vehicle is nine times cheaper, can dive 90 feet deeper, and target 500 urchins for every individual urchin a diver targets.
Organization Highlights
- Filed provisional patent application and built initial power module prototype
- Entrepreneurship networks: Flashpoint at Georgia Tech, Atlanta Technical Department Center, MIT Startup Exchange
Existing Partnerships
Marauder Robotics currently has two groups of partners for robot development and initial piloting:
- Georgia Institute of Technology and Georgia Tech Research Institute on technology development and a broader research partnership
- The Bay Foundation, The Institute of Marine and Antarctic Studies at the University of Tasmania Australia, and The Sydney Institute of Marine Studies at University of New South Wales Australia are piloting the solution and using their capital and resources to support the deployments
Organization Goals
Marauder Robotics seeks to achieve the following goals as it deploys initial pilots:
- Develop and expand to new uses for their underwater robot such as ocean data collection
- Refine their business and revenue model from a prototype to a replicable service
- Cultivate a marketing and social media presence to reach new partners and clients
Partnership Goals
To reach the goals mentioned above, Marauder Robotics seeks partnerships to:
- Mentor and advise product development and strategic planning
- Support marketing and communications that clearly distribute data
- Build connections to investors and grantors to progress their fundraising strategy
Building tunable robotic technologies to accelerate ocean ecosystem restoration and maintain balance.
Kelp Forests are underwater environments recognized as one of the most productive and dynamic ecosystems on Earth (comparable to the Earth’s rainforests). Overfishing and other human activities have created a predator/prey imbalance in which natural predators are severely underrepresented. This predator imbalance has resulted in the loss of more than 3.3M acres of kelp forests on six continents. The reduction in kelp forests adversely impacts ocean acidity, food security, biodiversity, coastal erosion and does extensive economic damage to billion dollar industries that rely on ocean resources.
Kelp Forest restoration efforts are currently underway by governments, NGOs, and industry stakeholders around the world. The current “state of the art” restoration method uses “gentlemen” divers as predator alternatives. These divers remove excess urchins by hand. This manual method is dangerous, inefficient, costly, and cannot scale because humans are not designed to operate underwater. In California, one of our beta partners is using divers to restore and maintain persistent urchin barrens along the Palos Verdes Peninsula at the cost of $370k per acre. There are more than 4000 acres in need of restoration in this area along. This method of recovery is not economically viable and scalable. Marauder robotics offers a high tech solution significantly impacts the cost, safety, and efficiency of future ocean restoration and underwater monitoring efforts.
Our mission is to build and deploy cost-effective predator alternatives to suppress prey populations to sustainable levels while providing continuous environmental monitoring in the restoration area. Marauder Robotics ability to develop underwater technologies to restore and maintain ocean ecosystems was meaning to the ecological, policy, and industry stakeholders we approached during our discovery phase including our current beta customers/partners. We plan to launch with an artificially intelligent and tunable autonomous marine predator that hunt sea urchins while providing near real-time biodiversity and environmental condition maps of the restoration zones.
Marauder Robotics will change the world by addressing several major ocean/global issues in need of a scalable, sustainable, and environmentally friendly solutions. Actively managing prey populations that are inversely impacting critical kelp forest fisheries allow these ecosystems to thrive. Healthy and thriving kelp forests have a positive effect on fish, mammals, and crustaceans as well as people. Restoring kelp forest mitigates ocean acidity by sequestering carbonates into plant biomass which generate clean oxygen in return. Our beta partners have shown that restoring macrocystis kelp forests raised the pH in the restoration zone by 0.2. Also, our efforts to expand kelp forests to historical levels has a benefit of increaseing seafood species in the restoration zone thus increasing food security and securing a cheap protein source. Finally, expanding kelp forest presence near coastal communities offer protection from storm surges by absorbing wave energy before reaching land.
In closing, using technology to manage urchin populations will allow kelp forests to thrive and expand. Marauder Robotics' solution is robust and scales globally to address declining ocean health. We are bringing and maintaining balance in our oceans.
- Restoring and preserving coastal ecosystems
- Building sustainable ocean economies
MarauderONE is an innovative system that restores persistent and incipient urchin barrens. The current state of the art is to use divers in the place of natural predators. Humans are not designed to work continuously underwater for days at a time at depths over 30ft. Therefore, divers cannot scale to this problem. MarauderONE replaces divers. It autonomously identifies, quantifies, and strategically suppresses urchin populations to 1-2 urchins/sqft. MarauderONE continuously monitors ecological and environmental changes to the kelp ecosystems while quantifying biodiversity changes. Currently, there are no high tech systems to manage sea urchin populations.
MarauderONE is using machine learning in the following ways:
- Identify/infer, quantify, and map ecosystem biodiversity.
- Stitch together a comprehensive ecosystem map from acquired images and video.
- Determine best navigational path for hardware to engage target urchin based on prevailing environmental conditions.
- Determine the optimal sequence of movements to acquire target based on equipment constraints and environmental conditions.
- Determine optimal restoration path that minimizes energy consumption and maximize effective coverage are in the field of operation
In addition to the above neural network aspect, we are developing a proprietary power solution to extend autonomous underwater operations from hours to days to weeks.
MarauderONE development occurs in four distinct technology modules.
- Hardware/Navigation - MarauderONE uses modified hardware from previous field projects. The 0-6m goal is to tailor the form and function of engaging urchins.
- CV/Inference - Running algorithm on android using TensorflowRT. Tested on aquarium exhibits. The algorithm has high inference certainty. The 0-6m goal is to optimize the algorithm to recognize/quantify multiple classes.
- Engagement -The 0-6m goal is to build and test prototypes in the field.
- Power - The 0-6m goal is to check the prototype in the lab and optimize the design for energy production and manufacturability.
In 6-12m, test an integrated MarauderONE.
After vetting MarauderONE (~yr1.5) in collaboration with our beta partners, it will be scaled to address their government's needs. After fulfilling obligations to early adopters, our team will continue to optimized MarauderONE and scale globally (~yr 3-5). Worldwide, there are more than 3.3M acres of coastline impacted by urchin barrens. Expanding kelp forests to historical levels will have the following high impact on people:
- Fisheries will thrive enhancing food security.
- Ocean acidification will be mitigated in restoration areas.
- Coastal erosion infrastructure will be more resilient due to the energy absorbing capacity provided by kelp forests
- Male
- Urban
- Rural
- Lower
- Middle
- US and Canada
- Oceania
- Australia
- Canada
- Japan
- United States
After conducting successful pilot and early commercial deployments with early adopters in Australia and the USA, other urchin barren impacted regions will seek to restore their impacted areas. They are already watching our efforts. Our beta customers/collaborators are a part of a close marine biologist community that has been tasked by their governments to source and deploy technology solutions to address urchin barrens. Our customers (governments, conservation organizations, environmental protection agencies, and commercial interests) will lease our products and services to help restore healthy ecosystems which are of interest to citizen/industry stakeholders.
TBD. We currently have three pilot site customers, with to-be-determined targeted trial areas of urchin barrens. The effect of restoring these urchin barrens to healthy ecosystems could indirectly affect thousands to millions, depending on the locale and proximity to coastal populations. Fisheries could be restored, erosion mitigation could be improved, local ocean acidity could be reduced.
Over the next 12 months, we will have completed our trial activities to eliminate urchin barrens in two of the three pilot sites. This will affect marine biodiversity (fish, fauna, crustacean) in three states and the thousands of consumers that source seafood from the region. Restoring kelp forests in these three states will affect hundreds of coastal residents by reducing coastal erosion, sequestering dissolved green house gases, and raising regional ocean acidity values by as much as 0.2.
- For-Profit
- 11
- Less than 1 year
AS TECHNOLOGIST, we have access to excellent technical and professional networks. Our peers are available to augment our core abilities. AS LEADERS, we see where people are "stuck" in their lives and show up in a meaningful way. We understand the value of being "present" and listening to others. AS ENTREPRENEURS, we have a passion for seeing and understanding the big economic picture before building previously unimaginable technologies. AS ENVIRONMENTALISTS, our guiding principles are to ensure the world is managing natural resources in a responsible and socioeconomic manner. In the end, we want to SERVE!
Mission as a Service (MaaS) and Software as a Service (SaaS) Models: The first MaaS opportunity pursued by Marauder Robotics is to develop and lease hardware to industry and NGOs customers tasked with restoring unproductive urchin barrens to healthy fisheries. Currently, we are engaged with three beta customers in the California and Australian ($10B) markets. Other MaaS opportunities are (1) underwater monitoring near coastal industrial sites [drilling platforms, wastewater outfalls, and energy production plants] and (2) near-shore underwater border surveillance. These MaaS opportunities naturally lead to SaaS revenues from the “unique” real-time data collected.
Solve can help Marauder Robotics effort to bring balance to ocean ecosystems by connecting us to relevant stakeholders (funding partners, technology development partners, social proof advocates, industry authorities, policymakers, permitting agencies, and more).
Our initial hurdles are financial and network in nature. Also, we need to develop hardware that can be certified at pilot trials. There are small urchin interactions and processing hurdles, but general identification, navigation, and indexing should not pose a barrier in the other core areas.
- Technology Mentorship
- Impact Measurement Validation and Support
- Media Visibility and Exposure
- Grant Funding
- Other (Please Explain Below)
Stats
Restoring kelp forests supported a 0.2 increase in pH in a beta partner's restoration zone.
Kelp regrowth was almost immediate, and a healthy ecosystem was achieved in 15-18 months.
Solver Team
Organization Type:
For-profit
Headquarters:
Atlanta, GA, USA
Stage:
Pilot
Working in:
Canada
Employees:
3
Website:
http://balancedoceans.com/
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Chief Executive Officer
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Chief Technology Officer