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| Clear Water Scrubbers LLC | Josh Johnson | President |
Small Business
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Other Energy Technologies
| Algal biomass growth Recovery of rare earth elements thru algal biomass Vertical algal reactors |
| KS |
| Re:Build Manufacturing | Kim Blair | VP Business Development |
Large Business
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Other Energy Technologies
| Across the United States, Re:Build Manufacturing is a family of engineering and manufacturing businesses whose combined experience creates an industrial powerhouse that is greater than the sum of its parts. Re:Build has over 900,000 sq. ft. of design, engineering and manufacturing footprint with over 1100 employees, of which over 400 are engineers/technicians. Our expertise in operations management, product manufacturing, technical and engineering proficiency, and full product lifecycle management is changing the way industrial America does business. Close collaboration yields more value for the good of all—our customers, our employees, and the community—for the very long term.
Re:Build offers our partners a new model of American industrialization. We have combined a deliberate set of capabilities to enable local, and competitive, manufacturing for our customers. These capabilities are strengthened by our focused and ongoing deployment of continuous improvement, proprietary software and digital tools, and intense collaboration within the Re:Build ecosystem. Starting with concept development and product engineering, we work closely with our customers to develop a highly flexible manufacturing process to provide their most critical components and systems.
Re:Build has extensive experience in engineering and manufacturing process control systems. This experience includes process reactors, separation systems, anode and cathode materials manufacturing, membrane manufacturing, and materials separation systems. We design and build full manufacturing systems that include both traditional and new technologies. We support this development at any scale, from the lab to pilot to full-scale plants or rate production of small-scale plants. |
| MA |
| Columbia University | Ngai Yin Yip | Associate Professor |
Academic
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Other Energy Technologies
| The Yip Lab's research focus is on advancing physicochemical innovations for critical separations at the nexus of energy, water, and the environment. Projects include decentralized and autonomous nutrient recovery (N and P) from urine, recovery of energy materials from unconventional streams, e.g., Li from geothermal brines, desalination, zero liquid discharge, and energy and thermodynamic analyses. |
| NY |
| Columbia University | Kartik Chandran | Professor of Earth and Environmetal Engineering |
Academic
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Bioenergy
| Kartik Chandran is a global leader in sustainable wastewater treatment and engineered resource recovery. Chandran’s work is enabled through understanding and harnessing the biochemical potential and metabolism of microbial communities and developing appropriate technologies towards addressing global environmental and societal needs. Research Interests Engineered systems for resource recovery, microbial N- cycling, sustainable sanitation and wastewater treatment, global climate impacts of engineered wastewater treatment practice, microbial ecology of engineered biological waste and water treatment, reactors, novel molecular based biokinetic estimation tools, elucidation of microbial biochemical degradation pathways , bioprocess modeling and parameter identification for complex biotransformations. Links VISIT EARTH AND ENVIRONMENTAL ENGINEERINGLAB WEBSITECV
His fundamental work has focused on elucidating the molecular mechanisms and pathways of the microbial nitrogen cycle and its links to the global carbon, water and energy cycles. His applied work ranges from large-scale centralized wastewater treatment systems to community scale decentralized resource recovery systems and technologies across the globe.
The key insight of Chandran’s research and applications thereof is that certain combinations of mixed microbial communities, similar to those that occur naturally, can be used to mitigate the harmful environmental impacts of wastewater and to extract useful products. This approach also involves reduced chemical and energy inputs relative to traditional treatments and has the added benefit of preventing algal blooms downstream by maximizing nitrogen removal. More recently, using ammonia-oxidizing bacteria, Chandran has enabled the transformation of bio-generated methane gas into methanol, a chemical that is both easily transported and widely useful in industry (including in the wastewater industry). |
| NY |
| AquaNova LLC | Vladimir Novotny | Professor Emeritus, Consultant |
Small Business
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Power Generation: Renewable
| Vladimir Novotny, PhD, P.E., BCEE, Professor Emeritus at Northeastern University, Boston (MA) and Marquette University, Milwaukee (WI), also Partner at AquaNova LLC. Since 1973 till 2002 I was Professor at Marquette University teaching and guiding undergraduate and graduate students and founded Institute for Urban Environmental Risk Management. In 2002 I became a CDM-Smith Chair Professor at Northeastern University and founded the Center for Urban Environmental Studies. In 2012 I became Emeritus Professor, devoting my time to professional consulting at AquaNova LLC, Fulbright sponsored visiting professorships in Italy and Czechia, writing books and articles, and family. In 2006 I received grants from the NSF and Johnson Foundation to organize an international workshop on Cities of the Future in the Wright designed Wingspread conference center in Wisconsin gave impetus to the IWA’s “Cities of the Future (COF)” initiatives. Between 2009 and 2013 I was a Member of the IWA Steering Committee for COF. Through AquaNovaLLC and as a licensed engineer I have consulted to clients in US, Italy and Czechia, published textbooks, nationwide manuals and edited proceedings, 180 refereed journal and proceedings articles. My latest books Water Centric Sustainable Communities (2010) and Integrated Sustainable Urban Water, Energy and Solids Management (2020) and recent six journal publications and two research reports are pertinent to this proposed DoE funded project. After my university retirement I devoted my research and writing to studying and developing a concept of total urban decarbonated water, energy and waste solids (including plastics and tires) management system, including also landscape. The systems described in 2022 Inter. Journal of Hydrogen Energy and literature focused on sequestering emitted CO2 and biogas burning to producing hydrogen, renewable energy and resources such as clean water, solid carbon (graphene), concentrated CO2, O2 and NH3, phosphorus, acetates, possibly rare metals with zero GHG emissions. My research and publishing also suggested onsite conversion of extracted fossil gas into hydrogen, energy and by adding Haber -Bosh producing ammonium from extracted CH4 converted to H2 and from concentrated flue air N2 described in https://doi.org/10.1016/j.jhydene.2022.01.085; https://doi.org/10.1016/j.jhydene.2022.11.095. This planned decarbonization requires textbooks and guidelines which would be the product of our activities. |
| MA |
| Xylem Inc. | Amanda Lounsbury | Early-Stage Research Strategist |
Large Business
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Other Energy Technologies
| Xylem Inc. is a large American based water technology provider across public utility, residential, commercial, agricultural, and industrial sectors with technologies that range from smart metering and sensing, to pumps, to treatment technologies and processes, and more. Xylem Inc. does business in more than 150 countries globally. Xylem is interested in collaborating with innovation partners in multiple capacities and areas of interest in regards to this NOFO. |
| DC |
| Washington University in St. Louis | Young-Shin Jun | Professor |
Academic
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| I am interested in nutrient recovery (ammonia and phosphate) and critical element recovery (cobalt, nickel, REE, and lithium) from wastewater. My group's expertise lies in high-resolution nanoscale interfacial processes and solid nucleation, which are key to controlling recovery processes. We examine and investigate these systems using chemical principles with a focus on nanoscale control.
Our approaches include: (1) High-resolution in situ characterization of solids, liquids, and interfaces during resource recovery; (2) Development of new materials for effective recovery; (3) Development of novel processes, such as hydrogel or supercritical fluid extraction, combined with controlled solid nucleation. |
| MO |
| Cetogenix (NZ) Ltd | Dr Daniel Gapes | Chief Science Officer |
Small Business
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Bioenergy
| Cetogenix is a cleantech company that has developed a Hydrothermal Oxidation (HTO) based technology – Ceto-Boost™ - for the conversion of wet organic waste streams (such as sewage sludge) into renewable energy and materials. Unlike most other advanced thermal conversion processes, Ceto-Boost™ is targeting the deconstruction of these wastes rather than the destruction, using moderate process conditions to maximise efficiency and recoverable resources such as ammonia. When applied to sewage sludges and other wet organic wastes (e.g. manures), Ceto-Boost™ breaks down the organic solids into simple components such as acetic acid and ammonia, generating a highly recoverable product stream. This results in >100% increases in available ammonia (both quantity and concentration) able to be recovered from wastewater treatment sludge streams. Further, metals tend to be retained within the particulate fraction, facilitating easy separation from the bulk liquid phase. The Cetogenix team has had >20 years of R&D experience in the application of HTO and has developed a deep understanding of how to optimise the process conditions. The Ceto-Boost™ modular HTO system is currently at TRL5 stage of development, with a large-scale prototype and extensive laboratory facilities in place. We see opportunities for our technology to provide an enhanced ammonia yield, and a simplified aqueous matrix for subsequent extraction of ammonia and valuable metals from the originally complex wet organic sludge resources. |
| Bay of Plenty |
| University of British Columbia | Steven Hallam | Professor |
Academic
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Bioenergy
| We operate state-of-the-art biobanking and automation facilities useful in the collection, processing and screening of microbial biomass from natural and engineered environments. We have leveraged this infrastructure in the design of time-series bioprocess optimization experiments associated with municipal and agricultural bioenergy facilities and in the large-scale mapping of microbiomes for strategic metal recovery from mine influenced waters and tailings. We design, build, and test functional screening paradigms and computational workflows useful in the recovery of biological parts from environmental genomes as well as in the deployment of these parts in engineered strains for specific bioprocess applications, and we have developed new technology for high-throughput screening of photosynthetic microorganisms in plate-based formats useful in the recovery of optimized microbial cell factories for wastewater treatment and bioproduction. Recent research activities in the lab include the development of cell surface display systems for strategic metal recovery, isolation of new microalgae strains and enrichment cultures with biotechnological potential, and the creation of synthetic microbial consortia combining various host chassis with fungal mycelium to produce engineered living materials with applications in waste resource recovery, sustainable architecture, and food security.
We are interested in being part of a team effort to recover value from various municipal and industrial waste streams based on the practical application of ecological design principles embedded in microbial operating systems at the individual, population, and community levels of biological organization. We see enormous potential in harnessing these microbial biotechnologies to create new climate positive value cycles and in decreasing the carbon footprint of current operations with the goal of entering a new post-waste era. Our experience working with the bioenergy and mining sectors has given us practical wisdom related to the needs and operating specifications of relevant bioprocesses for waste resource recovery and we are committed to seeking foundational advances related to this use inspired research. We would like to bring our facilities, chassis and parts collections, screening platforms, and highly qualified personnel into a collaborative scientific ecosystem that directly contributes to scalable biotechnology innovations with near term impacts. |
| British Columbia |
| Boston College | Emma Brace | Assistant Professor of Engineering |
Academic
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Bioenergy
| Prof. Brace's lab at Boston College combines experimental development of novel process engineering strategies with simulation and modeling approaches. We work on downstream processing and separations strategies in the lab to recover valuable molecules and platform chemicals, and also use computational tools for process engineering, techno-economic analysis, and life cycle assessment.
Also at Boston College, Prof. Catherine Hoar's group interrogates wastewater and wastewater treatment systems to detect contaminants, understand their fate, and improve their removal. Her research interests include wastewater surveillance of emerging pathogens, biological wastewater treatment processes, and biodegradation of emerging contaminants in natural and engineered systems. |
| MA |
| Metro Vancouver | Lillian Zaremba | Program Manager, Collaborative Innovation |
Non-Profit
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Bioenergy
| Metro Vancouver treats 1.8 million litres per day of municipal wastewater. Our team is actively advancing technologies to recover resources, such as nitrogen and hydrogen, from wastewater. We are planning to pilot ammonia-to-hydrogen technologies that leverage ammonia oxidation pathways to produce low-carbon hydrogen. This aligns with our strategic objectives to recover resources, generate renewable energy, reduce our carbon footprint, and support sustainable economic growth.
Specifically, we are interested in: • Advancing ammonia recovery processes to allow continuous operation with varying flow rates and concentrations in municipal wastewater streams. • Optimizing ammonia-to-hydrogen conversion to minimize energy consumption, by-product generation, and consumable inputs. • Integrating ammonia-to-hydrogen processes into existing wastewater treatment facilities.
We test emerging technologies at pilot scale to assess their potential full-scale implementation at our wastewater treatment facilities. These facilities provide diverse wastewater conditions, offering unique opportunities to advance ammonia-to-hydrogen processes in a real-world operational environment.
We recently completed a feasibility study of ammonia-to-hydrogen systems and initiated the pilot phase of the project with a Request for Expression of Interest (RFEOI) for technology providers, closing in December 2024. This RFEOI is a key step to identify potential solutions to advance and scale ammonia-to-hydrogen processes. Our expertise is partnering with others to scale up bench-scale research to evaluate how new technologies can contribute to technical and financial objectives. We collaborate with peer utilities worldwide to share knowledge and promote innovation in wastewater treatment and resource recovery. |
| BC |
| City and County of Honolulu | Paul Gamble | Engineer |
State and/or Local Government
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Bioenergy
| As 90% of food is imported to the Hawaiian Islands, the Organic Fraction of Municipal Solid Waste (OFMSW) is significantly higher than mainland/ continental United States. City and County of Honolulu is in process to co-digest this fraction of the waste stream in anaerobic conditions to produce biogas energy.
My position is with Department of Environmental Services, Wastewater Engineering and Construction. I manage multiple projects, one of which is the design of co-digesting organic waste at one of our wastewater treatment plants. from 200-2007, I worked at then Norcal Waste Systems Inc. (now Recology) and my title was Compost Specialist. In that time, the company grew its organic waste diversion 200k tons of organic waste at its 3 compost facilities. It was also the first company to successfully divert food waste from a US urban environment- San Francisco. I gained a deep understanding for multiple composting technologies as well as alternative developing degradation technologies. I was co-author of "A Characterization of Food Waste as a Feedstock for Anaerobic Digestion" which has been cited over 1,000 times.
I subsequently was awarded a Masters Degree from Washington State University Department of Biological Systems Engineering where I wrote my thesis on ammonia inhibition and alleviation in Poultry Manure plug-flow anaerobic digestion. |
| HI |
| Stantec Consulting Services Inc | Darius Banaji | Senior Principal |
Large Business
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Other Energy Technologies
| We are a global leader in sustainable engineering, architecture, and environmental consulting. We possess extensive, global public and private sector experience in studying and designing wastewater and advanced water treatment plants and energy management, to include greenhouse gases. We have subject matter experts with nearly 30 years of experience in technical design lead, project management and supporting progressive design-build (PDB) programs for large wastewater treatment plants, solids management process new builds, and upgrades/expansions at plants up to 600 ML/d.
Our experts are also proficient in leading biosolids technology evaluation, designs, technical reviews, equipment pre-selection, and construction engineering services for biosolids facilities using thermal hydrolysis process (THP) technologies, conventional and advanced anaerobic digester upgrades/expansions, biogas storage and utilization facilities, cogeneration facilities, activated sludge biological and chemical nutrient removal systems, composting and odor control systems, and energy optimization projects.
With wastewater treatment reaching levels of complexity and regulatory scrutiny warranting specialized oversight, and facility performance measured constantly, it’s important to have the most appropriate, cost-effective solution the first time, every time. We evaluate and optimize by minimizing consumption and discharge, characterizing process streams, addressing hydraulic loading and variability, and troubleshooting process problems while identifying pollution-prevention alternatives and sustainable technologies.
Our knowledge of both established and emerging technologies includes biological nutrient removal, membrane bioreactors, sequencing batch reactors, low-pressure membrane filtration, ion exchange, advanced oxidation, nutrient recovery, and residuals management. We’ve designed processes to satisfy discharge limits that push the boundaries of existing solutions and continue to undertake research in the application of developing technologies, such as treatment for removal of emerging contaminants. Our list of firsts includes the first biological phosphorus removal, industrial scale phosphorus recovery, and biological nutrient removal facilities in North America.
As designers of plants around the world, our experience and commitment maximize a community’s investment by providing the best overall value. |
| NV |
| Novi Research | Jonakee Reynolds | Vice President |
Small Business
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Other Energy Technologies
| Novi Research specializes in assisting with commercialization, by connecting the research to business goals so that the data can be used to inform actionable strategies that drive growth, spark innovation, and strengthen the long-term success of a business. Novi brings a powerful combination of market expertise, strategic insight, and data-driven methodologies to support comprehensive market needs assessments and commercialization strategies. With a long track record of proven experience, we help clients identify, segment, and effectively target key markets to unlock new opportunities and optimize growth. Our structured process ensures we find precise product market fit across the sectors with the greatest opportunities, and push new technologies into the marketplace.
Our approach integrates stakeholder interviews, precision data analysis, segmentation, and ethnographic research, followed by strategy workshops. This systematic process provides a comprehensive understanding of market dynamics, competitive landscapes, and strategic positioning, as well as streamlining the process through the RDD&D continuum. By leveraging our extensive experience, we deliver insights that highlight market size, growth potential, and optimal pathways for product-market fit. We take our work a step beyond traditional research, by facilitating connections with key stakeholders or first customers, ensuring market entry.
Novi Research is uniquely positioned to translate complex technical data into actionable market insights across a wide range of industries, including cleantech, consumer technology, healthcare, and AI. Our experience with both deep tech startups and established corporations enhances our ability to identify early market trends and develop strategies that are responsive to regulatory challenges and market shifts. Our team’s commitment to research and strategic follow-through empowers clients to move from data to action seamlessly, whether they are aiming for market entry, strategic partnerships, or long-term growth plans. We ensure each project’s success by aligning data-driven strategies with clear, actionable recommendations that maximize commercialization impact and outcomes.
We are looking to partner with technologies/companies to assist primarily with commercialization, or market needs assessment, although we are also well equipped to conduct primary research in the marketplace and gather necessary data. |
| CA |
| Drexel University | Christopher Sales | Associate Professor |
Academic
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Bioenergy
| I lead a research group in the College of Engineering at Drexel that uses our expertise in applied environmental microbiology, environmental engineering, and non-equilibrium plasmas to develop innovative environmental treatment technologies and sustainable living infrastructure materials. I am also the Director the Applied Plasma Biology & Chemistry Laboratory at the C&J Nyheim Plasma Institute at Drexel.
Our research group has researched and developed innovative environmental biotechnologies using algae, bacteria, and fungi to treat and recover resources from different waste streams. We combine reactor engineering principles with a systems biology approach and a deep understanding of microbial physiology and ecology to improve the design and operation the performance of biotechnologies for particular applications. For example, we have engineered microbial consortia of nitrogen cycling algae and bacteria to recover ammonia and nitrogen-rich biological products as animal feed, fertilizers, and also as a feedstock for nitrogen-rich organic material for development of novel semiconductor materials.
At the Nyheim Plasma Institute, I work with a team of plasma scientists and engineers to develop plasma technologies to improve the conversion and valorization of waste into a variety of high value products and chemicals. We have developed and demonstrated a number of plasma technologies for industrial-scale use, including the treatment of municipal solid wastes, produced water from oil & gas operations, and waste and wash waters used in agriculture and food harvesting and processing. (https://drexel.edu/NyheimInstitute/)
We are interested in seeing if we can innovatively combine the use of plasma and biotechnologies for recovery and generation of high-energy materials from wastewaters. |
| PA |
| Cornell university | April Gu | Professor |
Academic
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Bioenergy
| Professor Gu has expertise in sustainable biotechnology for water treatment and remediation through process optimization, energy capture, nutrient recovery and carbon foot-print reduction. |
| NY |
| University of Kansas | Belinda Sturm | Professor |
Academic
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Bioenergy
| Our research group has worked with produced water, feedlot waste (swine), and municipal wastewater. I am interested in partnering on process integration regarding this call in any of these wastewater systems. For the past 10 years, I have served on the Water Environment Federation's Municipal Design Committee. |
| KS |
| Argonne National Laboratory | Troy Hawkins | Group lead |
Federally Funded Research and Development Center (FFRDC)
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Bioenergy
| Our team possesses expertise and capabilities that are closely aligned with the objectives of the RECOVER program. Our center developed the Greenhouse gases, Regulated Emissions, and Energy use in Technologies (GREET) model, which assesses the environmental impacts of wastewater treatment and provides comprehensive inventories for ammonia and metals, offering valuable benchmarks for recovery efforts. Additionally, we have extensive experience in techno-economic analysis (TEA) and process modeling, which enable us to evaluate the feasibility, cost-effectiveness, and sustainability of recovery technologies. Our life cycle analysis (LCA) and TEA research serve as critical tools to guide the development of innovative and sustainable technologies, ensuring the project achieves cost viability while meeting energy and greenhouse gas (GHG) emission reduction goals. |
| IL |
| Michigan Technological University | Snehamoy Chatterjee | Associate Professor in Mining Engineering |
Academic
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Other Energy Technologies
| I am a mining engineer specializing in mine system optimization and design under uncertainty, with extensive experience in resource recovery and waste minimization. My expertise lies in applying advanced optimization techniques, probabilistic modeling, and systems analysis to enhance the efficiency and sustainability of resource extraction and processing operations. I have worked extensively on integrating innovative solutions to address complex challenges, including the recovery of valuable materials from low-grade resources.
Given the focus of the upcoming NOFO on the recovery of high-energy-value materials from wastewater, my background is particularly relevant in developing scalable and efficient recovery systems. I bring expertise in designing processes that account for variability in feedstock composition, optimizing recovery yields, and integrating these processes into existing industrial systems. Additionally, I have a strong research and application track record in circular economy principles, leveraging waste as a resource to enhance operational sustainability.
Collaborating with interdisciplinary teams, I have successfully contributed to projects requiring expertise in system integration, material characterization, and lifecycle assessments. I am enthusiastic about partnering on this initiative to contribute my skills in process optimization, resource recovery, and uncertainty analysis to advance the recovery of high-energy-value materials from wastewater. My goal is to help develop innovative, cost-effective, and sustainable solutions that align with the Department of Energy's priorities. |
| MI |
| Texas Tech University | Mahdi Malmali | Associate Professor |
Academic
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Other Energy Technologies
| One of the major topics in my group are: - methodologies to develop cost-effective methods to prepare clear brine [https://doi.org/10.1016/j.desal.2023.116396; https://doi.org/10.1016/j.desal.2021.115046] - designing desalination/concentration technologies for produced water [https://doi.org/10.1016/j.desal.2023.116771; https://doi.org/10.1016/j.jwpe.2022.103219] - process modeling and simulation [https://doi.org/10.1016/j.seppur.2022.122568] - thermodynamics of produced water [https://doi.org/10.1016/j.seppur.2021.119231] - developing a database for critical materials and minerals in produced water (we have a database on concentration of REE, CMM, etc. in the produced water that does not exist in the current database) - studying scaling behavior in separation processes [https://doi.org/10.1016/j.watres.2024.121456; https://doi.org/10.1016/j.desal.2024.117393] - developing mixing/turbulence promoters to reduce scaling [https://doi.org/10.1016/j.desal.2023.116758] - designing electroconductive membranes for high salinity brine concentration using electromagnetic field [https://doi.org/10.1039/D4TA05611F]
We have ongoing collaboration with major oil and gas companies in Permian on various topics, including desalination, external beneficial reuse, and resource recovery. Our previous work has been funded by US DOE AMO (field demonstration of hybrid desalination of produced water at the scale in the field).
We are interested to lead concepts related to Category 2 and 3 and anyone who is has complementary expertise in recovering trace elements from concentrated brine streams are welcome to join us. We can also support other teams with the database, providing clear brine (produced water), concentration, desalination, thermodynamics, process simulation, exergetic analysis, etc.. |
| TX |
| NYC Department of Environmental Protection | Brendan Hannon | City Research Scientist |
State and/or Local Government
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Other Energy Technologies
| NYC Department of Environmental Protection is New York City's water and wastewater utility. We deliver a total of 1.1 billion gallons of water per day to New York City and treat approximately 1.3 billion gallons per day of wastewater at our 14 in-city Wastewater Resource Recovery Facilities. We are particularly interested in identifying ammonia and/or phosphorus recovery technologies through this opportunity. |
| NY |
| Clemson University | Gary Amy | Professor |
Academic
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Other Energy Technologies
| In relation to this anticipated NOFO, Gary Amy’s general areas of research include seawater and brackish water desalination, wastewater reclamation and reuse, membrane science and technology, and aquatic chemistry and equilibrium modeling, with specific expertise related to selective membrane separation, brine concentration processes, selective sorption for targeted ions, and novel wastewater treatment for harvesting energy and nutrients. |
| SC |
| University of New Mexico | Jose Cerrato | Professor |
Academic
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Other Energy Technologies
| I am interested on uranium mining legacy, recovery of critical metals from wastewaters |
| NM |
| Lloyd Automation | Peter Lloyd | Senior Engineet |
Small Business
|
Bioenergy
| Goto Powellwater.com. Lloyd Automation formed a partnership to clean waste water Look at web site for Electrocoagulation of waste water. We have created systems in Hydro Oklahoma to clean the sewage water for discharge into surface water. We are also involved with Redrock. Colorado. Dept of Mines. And Iron Mountain in Colorado. Powell and Lloyd Automation have been involve with wastewater for 30yearr. Powell water electrocoagulation equipment can treat 500gallon a minute and more by adding machines , which cause the sewage water to drop out of suspension dissolve and suspend particles in an energy conservative way. forcing iron or aluminum ions into the water to coagulate the water while oxygen oxides the Metal ions. These ions now suspended particles quickly fall to the bottom of retaining tank cleaning the water for discard. The water is 5 log sterized. The residual metals at the bottom of a specialized tank are then ready be separated using electrolysis or centrifuged methods. |
| TN |
| Oregon State University | Zhenxing Feng/Brine Miners | Associate Professor |
Academic
|
Other Energy Technologies
| Prof. Zhenxing Feng is leading a multidisciplinary team called Brine Miners to recover critical materials (Li, Co/Ni, CaF2, etc.) as well as hydrogen/clean water from waste brines such as inland brines and brines after desalination processes. We have expertises covering chemical, mechanical, and electrochemical processes in addition to circular economy analysis. We have different thrusts that can be flexible to team up with team for incoming calls. |
| OR |
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