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| | Nalu Scientific, LLC | Isar Mostafanezhad | |
Small Business
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Other Energy Technologies
| We design and develop fast low SWaP-C data acquisition systems based on our DOE SBIR developed and patented microchip technology. Our microchips are currently available for sale through a distribution partner. The main applications include photon time of arrival estimation (lidar), radiation detection and sensing and large particle physics scientific experiments.
We are wrapping up a NOAA Phase II SBIR where we have prototyped and miniaturized a special ocean lidar system (named OLEAS) to measure the density of phytoplankter in the water column. This real time low cost, low burden measurement technology allows for a live view of such microorganisms that are essential in the ocean's carbon cycle. The instrument can be advanced to create 3D images of the phytoplankton density in the ocean up to several optical depths.
We believe this technology can help measure and validate assumptions regarding the ocean's carbon intake. We would like to partner or collaborate to scale up and bring this technology to the end users. |
| HI |
| | University of Georgia | Adrienne Hoarfrost | |
Academic
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Bioenergy
| My expertise is in deep learning and machine learning applied to marine microbial ecology, biogeochemistry and the marine carbon cycle, and biotechnology more broadly. I am an Assistant Professor at the University of Georgia in the Department of Marine Sciences and the Institute for AI. I received my PhD in Marine Sciences from UNC Chapel Hill, and did a postdoc at NASA in the AI/ML working group before joining UGA in 2022.
My lab at UGA is building deep biological foundation models to capture complex biological systems and their interactions with their environment (e.g. Hoarfrost et al., 2022). This approach enables us to predict the functional and ecological roles of uncharacterized microbes that dominate ocean ecosystems and shape the marine carbon cycle. We are particularly interested in high-throughput in situ characterization and monitoring of key components of the biological carbon pump, and to that end we are combining this computational approach with experimental and field-based approaches to characterize, and develop real-time biosensors for, key drivers of the marine carbon cycle. I lead the NASA AI/ML Self-Driving Labs Working Group, where we are using machine learning to create dynamic and autonomous experimental and sensing systems for remote environments like the deep sea and deep space (see Sanders et al., 2023). Using approaches like observational causal inference (Budd et al., 2021) and other machine learning approaches, we can identify these key targets for monitoring. Using approaches like federated learning (Duckworth et al. 2022), we are enabling sophisticated modeling with a light computational burden for autonomous samplers. I have extensive experience collaborating with and leading interdisciplinary teams of deep learning researchers and domains scientists to create valuable applied AI products that meet real-world needs.
I am interested in partnering with stakeholders in the mCDR space to create holistic MRV for mCDR that measures the biotic and abiotic components of the marine carbon cycle, the interactions between them, and that leverages sophisticated data and modeling systems that integrate multimodal data streams from multiple sensors and public data. |
| GA |
| | Harvard University | Peter Girguis | |
Academic
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Bioenergy
| While advances in ‘omics have radically altered our understanding of the ecology and evolution of microbes, our ability to measure rates of activity, in realtime and on living cells, remains limited. Many of my research and engineering efforts are aimed at bringing my training and experience in aquatic physiology and biogeochemistry to bear on long-standing questions in marine microbiology. To that end, I have dedicated much of my career to studying the ecological physiology of deep sea microbes using novel tools that allow us to ally community composition to function and, ultimately, biogeochemical cycles. For example, we developed a continuous flow bioreactor to study the relationship between growth and activity among anaerobic methanotrophs (Girguis et al., 2003, 2005). We later adopted that system to study high temperature anaerobic methanotrophy (Wankel et al., 2012). Then, as an assistant professor at Harvard University, we developed a series of osmotically-powered sampling pumps to collect and characterize changes in microbial community composition and function via 16s rRNA gene sequencing coupled with high-resolution mass spectrometric protein analyses (Robidart et. al., 2013). I’ve developed high pressure incubators to study chemoautotrophic symbiont activity at vent-like conditions (e.g. Girguis et. al, 2000, 2002, 2006; Newton et. al., 2008; Beinart et. al., 2012; Sanders et. al., 2013; Beinart et. al., 2015). I’ve also developed underwater mass spectrometers to directly study the impact of microbial activity on geochemical processes (Petersen et. al., 2011; Wankel et. al., 2012; Olins et. al., 2013; Frank et. al., 2013; Ussler et. al., 2013; Meier et. al., 2017). Most recently, we’ve been working on mammalian gut microbiomes (Sanders et. al., 2015) and developing means to measuring metabolic activity directly in the gut, at in situ conditions.
In sum, my research focuses on matter and energy flux through the biosphere, in particular the enigmatic, uncultivated marine microbes that are capable of chemical transformations that are beyond our abilities. |
| MA |
| | Sandia National Laboratories | Mieko Hirabayashi | |
Federally Funded Research and Development Center (FFRDC)
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Other Energy Technologies
| I have an expertise in microelectronics fabrication and sensors, specifically electrochemical sensors which can be widely utilized in oceanic sensing. For ARPAes CO2 sensing call we are looking for a partner that specializes in oceanic models involving dissolved CO2, especially those models that would benefit from dissolved inorganic carbon data with high temporal and spatial resolution. |
| NM |
| | Sandia National Laboratories | Mieko Hirabayashi | |
Federally Funded Research and Development Center (FFRDC)
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Other Energy Technologies
| I have an expertise in microelectronics fabrication and sensors, specifically electrochemical sensors which can be widely utilized in oceanic sensing. For ARPAes CO2 sensing call we are looking for a partner that specializes in oceanic models involving dissolved CO2, especially those models that would benefit from dissolved inorganic carbon data with high temporal and spatial resolution. |
| NM |
| | SeekOps Inc. | Brendan Smith | |
Small Business
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Other Energy Technologies
| SeekOps develops and deploys advanced gas sensor technologies using small Unmanned Aerial Systems (UAS) for efficient and quantitative emissions detection, quantification, and attribution. While the core sensor technology is licensed from development at the NASA Jet Propulsion Laboratory (JPL), SeekOps has commercialized this technology and currently develops and fabricates SeekIR sensors at their location in Austin, Texas. The SeekIR sensors are miniaturized parts-per-billion (ppb) sensitive tunable diode laser spectrometers (TDLS) and measure methane concentrations in situ. By integrating these sensors on UAS, the system uniquely provides state-of-the art capabilities for quantitative measurement in three dimensional space. Current gas species focus is on methane, carbon dioxide, and water vapor. SeekOps hopes to help stakeholders intelligently manage their carbon impact through measurement. |
| TX |
| | Otherlab | Catherine Berner | |
Small Business
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Bioenergy
| We have developed artificial upwelling technology that has 100x higher flow rate than other technologies and we are ready to commercialize it for CDR. We would love to partner with a team to pilot MRV technologies. |
| CA |
| | Native Village of Eyak | Caitlin McKinstry | |
Indian/Native American Tribal Government
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Other Energy Technologies
| The Native Village of Eyak (NVE) is a federally recognized Alaskan tribal government. Our purpose is to promote economic opportunities for our tribal members while protecting the land and natural resources of the Prince William Sound (PWS) and Copper River Delta. As the largest tribe in PWS, we have extensive experience working with fellow tribal governments and organizations that service this region.
Our mariculture research program hosts the largest kelp farm in PWS. Our team of biologists and engineers are currently researching best practices to grow kelp and the ecosystem services and economic advantages this industry can provide to our region. This includes investigating the role mariculture can play in marine carbon dioxide removal strategies while precisely quantifying these benefits.
NVE has a long track record of collaborating on projects involving economic, community, tribal, and natural resources development. We qualify as a Mature Contractor under the Indian Self-Determination Act. Our Department of the Environment and Natural Resources is experienced in conducting high-quality scientific research programs in some of the most challenging environments in the world. We have extensive experience with the logistics involved in implementing innovative projects in rural Alaska both on the water and in the backcountry. |
| AK |
| | Southeast Conference | Dan Lesh | |
Non-Profit
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Other Energy Technologies
| Southeast Conference is an Alaska-based economic development organization with a lead role supporting development of Alaska's mariculture industry.
We are the lead applicant on a successful $49 million grant recently awarded by EDA to scale up Alaska’s mariculture (primarily kelp and oysters) industry. We have some info on our website and lots more to come – alaskamariculturecluster.org. While most of our efforts are focused on other products and markets, we have one million in EDA funds (and another $200,00 in private sector cash match) set aside to advance Alaska’s readiness to participate in kelp-based carbon sequestration markets if/as they develop. We also have a broad coalition built with kelp farmers, other industry, and policy makers to drive mariculture forward in Alaska (it is has strong bipartisan support in our state).
We would like to partner with organizations proposing kelp-related marine CDR research projects to ARPA-E and/or NOAA grant programs or other avenues. Our interest is to see these projects happen so we can figure out what markets are viable, and also help these research projects happen in Alaska so our state is more ready to engage and our state's unique capabilities and resources are leveraged where warranted. Please get in touch to discuss how we might leverage our resources and partner to make good work happen. |
| AK |
| | Naval Undersea Warfare Center Division Newport | Tom Hansen | |
Federal Government
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Other Energy Technologies
| Background: presently leads a number of research teams in the development of new materials for sensing, transduction, and actuation as well as experimental sonar system platforms, systems for diver augmentation, soft robotics, and UUV propulsors. He previously developed chemical and optical sensors at the Army Armaments Research Development and Engineering Center.
Interest: His expertise in development of multi-physics sensors and undersea testing is relevant to solutions needed for the upcoming ARPA-E “Sensing Exports of Anthropogenic Carbon through Ocean Observation” program.
Capabilities: Naval Undersea Warfare Center (NUWC) Division Newport is the Navy's full-spectrum research, development, test and evaluation, engineering, and fleet support center for undersea systems. Scientists and technology focus areas include Ocean & Bio-inspired sciences, Acoustics, Sensors & Signal Processing, Marine Materials & Material Behavior, Unmanned Undersea Vehicles, Advanced Communications, and Machine Learning/ Artificial Intelligence & Data Science. With headquarters in Rhode Island, NUWC Division Newport operates detachments at West Palm Beach, Florida, and Andros Island in the Bahamas. Remote test facilities are located at Seneca Lake and Fisher's Island in New York, and Dodge Pond, Connecticut. |
| RI |
| | Missouri University of Science and Technology | Jie Huang | |
Academic
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Other Energy Technologies
| Dr. Jie Huang is the Roy A. Wilkens Endowed Associate Professor of Electrical and Computer Engineering at Missouri University of Science and Technology, Rolla, MO. He received his Ph.D. degree in Electrical Engineering from Clemson University, Clemson, SC, in 2015. In the past seven years at Missouri S&T, Dr. Huang has successfully established the Lightwave Technology Laboratory (LTL) with a strong track record of sustained research funding, high-quality journal publications, and state-of-the-art research infrastructure with cutting-edge capabilities. Dr. Huang’s research focuses on the development of optical and microwave sensors and instrumentation for applications in energy, intelligent infrastructures, clean environments, biomedical sensing, and harsh environments. During the past seven years at Missouri S&T, Dr. Huang directed or participated in 24 externally-funded research projects totaling approximately $17M (Dr. Huang’s shared credit: $8M) with sponsors from the National Science Foundation, National Institute of Health, Army Research Lab, Air Force Office of Scientific Research, Department of Energy, and National Labs, all historical supporters in the arena of advanced sensors. Dr. Huang authored or co-authored over 120 refereed articles and 10 US patent applications. 2) Dr. Huang is currently managing a very active research group of 18 people, including 1 NTT research professor, 2 full-time post-docs, 1 research Aide, 9 Ph.D. students, and 5 M.S. students, all of which are supported through funds from external research grants. Dr. Huang has demonstrated an unusual early ability to attract and retain senior research scientists, including one from a DOE National Laboratory. His demeanor and leadership qualities parallel those of highly successful senior managers. |
| MO |
| | SubSeaSail LLC | Michael Jones | |
Small Business
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Transportation
| SubSeaSail LLC develops and produces highly affordable, easy-to-use, 100% energy harvesting (wind + solar), long-duration USVs (unmanned surface vessels) and unique sensors. One line of vessels is a lightweight (32 kg) observation vessel that could be used to deploy fleets and/or swarms of monitoring vessels with sensors on-board that permit near real-time monitoring. The other line is fast, multi-hull, cargo vessels that can deploy sensor packages in the ocean and/or deliver cargo in a waterproof hull to a port or the beach. |
| CA |
| | [C]worthy, Convergent Research | Matthew Long | |
Non-Profit
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Other Energy Technologies
| Functional tools for quantifying ocean-based CDR must track signals within the ocean flow; they must provide quantitative assessments of CDR effects and counterfactual baselines and return estimates of additionality and storage durability. The tools must be scientifically credible, which implies support for validation frameworks and full transparency. Ultimately, a functional MRV framework will require that workflows are efficient, cost-effective, and easy to deploy. [C]worthy develops technical tools to meet these requirements. Our tools incorporate observational data, and geophysical and biogeochemical models; our analytic frameworks enable validation and quantitative insight. We have deep scientific and technical expertise and leverage existing model development efforts in the academic research sector. Everything we produce is open-source and well-documented to ensure scientific credibility, transparency, and accessibility. We support the deployment of MRV workflows on traditional HPC and public cloud computing platforms and conduct research to improve the efficiency of these analyses. |
| CO |
| | PNNL-Coastal Sciences Division | Chris Meinig | |
Federally Funded Research and Development Center (FFRDC)
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Other Energy Technologies
| The U.S. Department of Energy’s only marine research and development facility, PNNL’s Marine and Coastal Research Laboratory, is located in Sequim, WA. The resources and capabilities at the facility are uniquely suited to support marine decarbonatization and related MRV research through experimental, modeling, and in-water testing efforts.
PNNL-Sequim capabilities include on-site seawater intake and wastewater treatment infrastructure, and an array of 4,000 to 30,000 L mesocosm tanks for ecosystem studies. Access to a dock and a fleet of crewed research vessels, an autonomous surface vehicle, and a scientific dive team, for in-water testing. The mesocosm tanks and the dock are equipped with a range of commercial sensors for measuring natural and manipulated changes in CO2, carbonate chemistry, and relevant environmental and water quality conditions. Additionally, PNNL-Sequim has accredited analytical chemistry laboratories on-site capable of quantifying trace elements in a seawater matrix. Dedicated electronics labs are also available for development and reconfiguration of sensor and data collection hardware. For early-stage sensor development and testing, there are numerous tanks with filtered seawater in our aquatics research lab with resources to investigate biofouling and corrosion. In-lab testing capabilities also include arctic and hyperbaric simulation chambers, and as relevant to biological mCDR techniques, there exist extensive algal growth and optimization capabilities. Additionally, PNNL-Sequim has dedicated expertise in regional-scale, high-resolution computational modeling to simultaneously simulate hydrodynamics, biogeochemistry, and marine biota interactions. Our Research teams also have the necessary experience with lifecycle assessment (LCA) and techno-economic assessment (TEA) frameworks for impact assessment. |
| WA |
| | The George Washington University | Matthew Rau | |
Academic
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Other Energy Technologies
| I am a Mechanical Engineering Professor who specializes in marine carbon transport. I work primarily with oceanographers and other marine scientists to develop, deploy, and validate in-situ marine technology to understand the carbon cycle and bio-physical processes. Much of my work has thus far involved studying the aggregation efficiency of different types of phytoplankton, the marine snow they form (i.e. the particulate carbon in the ocean) and the processes that lead to the export or remineralization of marine snow back into dissolved carbon. Any validation of sequestered anthropogenic carbon will require some sort of characterization of the exported sinking particulate carbon fraction, for which my lab has ample experience. We have built and deployed instruments to measure particulates in my lab and I have deployed them myself (along with my students) as chief scientist aboard research vessels. My experience has allowed me to be part of both the oceanography and engineering communities and I can work effectively in multidisciplinary teams. Current projects of mine are funded by NSF Chemical Oceanography to understand what leads to marine snow fragmentation in the ocean and how we can model these processes to improve our predictions of carbon export from the surface ocean. |
| DC |
| | University of Hawaii | Ellen Briggs | |
Academic
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Other Energy Technologies
| Chemical sensor development for in situ monitoring of the aqueous carbon dioxide system with a focus on Total Alkalinity and pH. |
| HI |
| | Sofar Ocean Technologies, Inc. | Tosca Lichtenheld | |
Small Business
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Other Energy Technologies
| Sofar Ocean manufactures and deploys low-cost smart buoys, and operates the world's largest privately owned weather buoy network. We've also developed an open standard for marine hardware, enabling easy sensor integration with our buoy and "smart" mooring system. We deploy and maintain a network of more than 800 satellite-connected, sensor-equipped, low-cost buoys that collect data from the air-sea interface in real time. We also have an in-house team of ocean science experts who have used this data to produce an operational wave and marine weather forecast. Finally (less relevant to this specific funding opportunity), we offer a ship route optimization platform that leverages our real time weather data and forecasts to reduce vessel carbon emissions and improve maritime safety.
We have successfully commercialized all three of our product lines (buoys, weather data services, and ship route optimization software) and can support integration with our platforms.
We have in-house expertise in sensor integration, buoy design, mooring design, ocean science, wave dynamics, numerical weather prediction, marine hardware, vessel routing, software design and deployment, and more.
We are interested in teaming with:
(1) Sensor developers who are seeking a low-cost, proven, commercialized, scalable platform for their sensor (surface buoy and/or buoy with attached subsurface sensors)
(2) Model developers who are seeking global ocean data |
| CA |
| | Ocean Networks Canada | Kunal Khandelwal | |
Non-Profit
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Other Energy Technologies
| Ocean Networks Canada (ONC) maintains and operates a comprehensive network of cabled, mobile, and community-based ocean observing systems in the Pacific, Arctic, and Atlantic Oceans. These systems span marine environments from coastal fjords to deep ocean spreading margins, with installations at depths ranging from a few metres to 2700 m, each collecting a plethora of physical, biogeochemical, and biological measurements. The cabled networks provide continuous power and high bandwidth communications. ONC collects data from over 12,000 sensors, many streaming in real-time into the Oceans 3.0 data archive and portal, which are freely available.
ONC is highly motivated to work with partners to enable and advance a range of marine carbon dioxide removal (mCDR) solutions. By leveraging our ocean observing systems and infrastructure, ONC is uniquely positioned to help industry develop comprehensive Measurement, Monitoring, Modelling, Reporting, and Validation (M3RV) solutions for mCDR. In particular, ONC is well positioned to support the development of sensor technologies, distributed mobile platforms, and model validation initiatives.
ONC envisions being able to accelerate the development of M3RV frameworks and technologies through multiple pathways: i) ONC can provide both shallow- and deep-sea networked locations suitable for real-world field testing, ii) ONC has established physicochemical and biological baseline data across a diversity of ocean environments representing baseline conditions, iii) ONC has the capacity to measure key ocean carbon parameters, iv) ONC has the scientific and engineering expertise to design, implement, and manage real-time field trials, and v) ONC can help facilitate inter-comparison between mCDR field trials globally.
The cabled observatories are well suited to provide a range of depth and environments for distributed sensor assessments, and the critical infrastructure necessary for testing, for example AUV docking stations. For these assessments, the continuous power and high communication bandwidth capabilities of ONC’s networks allow for real-time monitoring, immediate data access, in situ configuration management, and mobile platform (e.g. AUV) command and control. In summary, ONC would be a valuable partner for any mCDR M3RV technology project needing real-world field testing. |
| British Columbia |
| | Seamount Sensors and Automation, Inc. | Matthew Casari | |
Small Business
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Other Energy Technologies
| Background:
SeaMount is a veteran owned small business which focuses on developing environmental observation solutions. SeaMount has experience designing sensing systems and telemetry systems for oceanographic and environmental monitoring. SeaMount’s owner (Matt Casari) was previously an engineer for NOAA’s Pacific Marine Environmental Laboratory where he developed electronics and software solutions for many sensors and remote systems. During his time with PMEL, he led the electrical and software development for the recent Autonomous Surface Vehicle CO2 (ASVCO2) Sensor, currently used to monitor carbon flux measurements on multiple autonomous platforms around the globe.
Interest:
SeaMount is interested in teaming with other organizations to provide electronic and embedded software expertise and capabilities to marine carbon dioxide removal industries. SeaMount is looking to team with individuals or organizations which have novel sensing technologies or ideas that require further engineering for use in the ocean environment. As a small business, SeaMount can move quickly and inexpensively through prototyping and development phases, and would be interested in working with larger organizations to help them expedite their designs and visions. Finally, SeaMount is also interested in designing data pipelines and automated testing capabilities for new mCDR sensors and systems.
Capabilities:
SeaMount has experience and expertise in:
* Oceanographic and Environmental Sensor design
* Software development, including: Firmware/Embedded Software, UI design
* Automated testing and CI/CD pipelines
* System integration
* Electronics and electrical system design
* Telemetry systems: Satellite and other IoT based systems
* Data pipeline design
* Rapid prototyping
* Extreme low-power and low-cost design
* Design for low environmental impact |
| VT |
| | Gea275 Ocean Tech | Hanne Jelavic | |
Small Business
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Other Energy Technologies
| We are a start-up based in Norway, developing the enabling technologies for carbon removal by marine snow. We are currently testing and verifying a new lab incubator (LSR) and lab protocol to more precisely calculate carbon uptake by Phytoplankton. This is a prerequisite for sensor calibration and development of a fully automated water column monitoring system using machine learning and sensor fusion to replace water samples and lab analysis for measuring carbon uptake by marine snow. The technology development is based on the scientific discoveries made by Dr. Stasa Psukaric and team, and is a new and innovative approach to collect relevant data in order to verify and quantify carbon uptake by marine snow. Dr. Stasa Puskaric knows how to make marine snow in the lab (pending patent application), and our long term goal is to initiate the formation of marine snow in the Southern Oceans. This is a type of ocean iron fertilization, as the method includes a specific form of iron in small amounts. Our goal is not to increase the growth of phytoplankton, rather extracellular release of newly produced organic compound by the existing phytoplankton community in the area, which we define as the formation of marine snow. We are looking for R&D consortium partners in order to conduct the censor calibration and development of the sensor system and machine learning programs. We are aiming to develop one new Fluorometer for detecting Newly Produced Dissolved Organic Matter (Proteus Instruments) and use other existing sensors used in the ocean research and monitoring industry. What is new and innovative is the way we collect and analyze the data in our machine learning software. We have started the basic development of this system software. We are looking for collaboration with Oceanographic research institutes, hardware/ sensor production companies and other R&D institute or companies working in the subsea space. |
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| | Oceanid MRV | Ben Swainbank | |
Small Business
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Other Energy Technologies
| At Oceanid MRV we work with mCDR companies across all durable pathways (kelp, DOC, OAE, etc...) and work with them on MRV methodologies, methods, and protocols.
Our focus is not on sensor or model innovation. We are happy to work with organizations that do have that focus. We have a broad network of partner organizations across mCDR pathways.
We're interested in partnering with private and research organizations interested in testing systems in pilot projects, case studies, establishing baselines, MRV protocol development and any related activities. |
| NH |
| | Univ. of New Hampshire | Douglas Vandemark | |
Academic
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Other Energy Technologies
| Ocean measurements of inorganic carbonate parameters using autonomous sensors.
Air-sea interface measurements of carbon dioxide fluxes using eddy covariance techniques.
Ocean measurement platforms including moored buoys, shipboard sensors, and vertical profilers.
Satellite measurements of ocean winds, waves, and surface fluxes.
Fast-rate CO2 sensor technologies. |
| NH |
| | Analog Devices, Inc | Kathryn Hautanen | |
Large Business
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Transportation
| Analog Devices, Inc. is a global semiconductor leader that bridges the physical and digital worlds to enable breakthroughs at the Intelligent Edge. ADI combines analog, digital, and software technologies into solutions that help drive advancements in digitized factories, mobility, and digital healthcare, combat climate change, and reliably connect humans and the world. With reported revenues of more than $12 billion in FY22 and approximately 25,000 people globally working alongside 125,000 global customers, ADI ensures today’s innovators stay Ahead of What’s Possible. |
| MA |
| | Applied Physics Laboratory at University of Washington | Craig McNeil | |
Academic
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Other Energy Technologies
| I am an Oceanographer at APL/UW with a scientific interest in dissolved gas cycling in the ocean. I help develop and refine instrumentation to measure dissolved gases in the ocean, including gas tension, O2, pCO2 and N2O. I also work with AUVs and profiling floats carrying dissolved gas sensors and modify the platform behavior to maximize accuracy and precision in dissolved gas measurements to tackle difficult problems in biogeochemistry. I lead a small AUV team at UW using Hydroid REMUS. We equip the AUVs with dissolved gas sensors, marine optics, and ADCPs for currents to measure fluxes and study biogeochemistry. Some of my current projects include measuring bubble mediated gas exchange at estuarine fronts and in the ocean ocean during high winds and heat fluxes, CH4 fluxes from seeps in the Cascadia Margin, and denitrification rates in Oxygen Minimum Zones. I am a founding partner of Pro-Oceanus Systems, Inc. (NS, Canada). |
| WA |
| | TAMUCC | darek bogucki | |
Academic
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Other Energy Technologies
| Coastal physical processes, remote sensing, contaminants and oil IR detection and dispersion
Electromagnetic remote sensing: LIDAR, microwave, terahertz and optical
Development of new sensor technology: Optical Turbulence Sensor or Microwave Salinity Sensor
Numerical methods in fluid dynamics |
| TX |
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