JCDREAM’s 2020 Year in Review

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Happy New Year!

While it wasn’t what we expected, 2020 turned out to be a pretty great year for JCDREAM as an organization. We want to thank you all for being involved in what we do here. We are very fortunate to have an engaged group of folks around us that want to make real change happen. We put together this nice little 2020 recap and hope you’ll enjoy checking it out.

Here’s to 2021 and all of the challenges and opportunities it will bring.

The Importance of Materials Science Education & Workforce Development

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The Importance of Materials Science Education & Workforce Development

Global climate initiatives are pushing for aggressive reductions in emissions and other contributors to climate change. Many of these goals are set for 2050 when the existing workforce will be nearing or already enjoying retirement. In the next few decades, there will be more demand than ever for designers, engineers, and technicians that can execute on sustainability initiatives. 

Meeting climate goals will require major shifts away from legacy energy production methods in favor of renewableselectrification, and zero-carbon e-fuels.  All these developing technologies rely on critical materialsAs the shift to the clean energy future scales up, these already-scarce materials will continue to cause disruptions through worsening scarcity, shortages, and other supply chain issues. Knowing this, we should be educating students about existing alternatives and future alternatives that earth-abundant materials could provide. Materials education researcher Andreas Kohler says The next generation of engineers and technicians need to be educated on materials science and criticality so that they are aware of and prepared for material shortages and how to design for sustainability and the environment.”  

Speaking of generations, let’s talk about Generation Z. Gen Z is that next crop of professionals and consumers whose decisions and behaviors will hugely impact the future of the world. They are currently between 8-23 years old. This means that in 2050 they will be 38-53 years old, well into their careers, and leading the charge in designing for the environmentGen Z knows that climate change is happening because of human activity, they demand sustainability in retail, they are the most ethnically and racially diverse generation, and they are poised to be the most well-educated generation yet. With this data and the clean energy future in mind, it is crucial that we begin reaching students in their formative educational years to create pathways to careers that will form the future of the environment. 

The National Science Foundation has already been working to increase educational opportunities in Materials Science nationwide for over 15 years. Data from these programs have shown that through the study of materials students gain a better understanding of fundamental concepts in physics, chemistry, biology, and mathematics by connecting those concepts with real-world applications. By increasing student understanding in other STEM (science, technology, engineering, and math) fields, materials science modules and courses can improve the pipeline into post-secondary STEM education and careers. 

While materials science resources will help educators to improve students’ understanding of these complex issues and help keep them interested in STEM careersthe looming problem is that the current cohort of scientists and engineers is simply not large enough to fulfill the workforce needs of the next decade, let alone 30 yearsIn engineering and manufacturing, an estimated 2.4 million jobs will remain vacant between now and 2028 due to this skills gap. This gap reflects declining interest in STEM fields, but it is also a symptom of today’s engineering educational system having left behind a huge well of untapped intellectual resources – underrepresented populations. 

Underrepresented and minority communities are experiencing the impact of the critical materials issue two-fold. First, underrepresented populations are disproportionately affected by the challenges that come with critical materials – environmental impacts, human rights violations, supply volatility, and more. Secondly, underrepresented populations also have less access to the foundational educational resources and opportunities that would enable the pursuit of highpaying careers dedicated to solving these problemsNearly every industry employs engineers, offering numerous career paths and some of the highest paying jobs outside of the medical industryWe need to ensure that everyone can access the advantages afforded by a STEM education, and we need all the help we can get to solve this problem of inequity. 

JCDREAM is committed to conducting educational outreach concerning earthabundant solutions and critical material issues to students and educatorsWe have collaborated with experts in materials education, workforce development, and research to accomplish these goals and develop resources and curriculum elements suitable for secondary education and beyond. Our collaborators Mel Cossette, Ann Avary, and Patricia Townsend are dedicated to the future of materials education and workforce training in Washington.  

Cossette has over 25 years of experience in manufacturing education. She is the Executive Director of the National Resource Center for Materials Technology Education (MatEdU), housed at Edmonds College. Ann Avary is Director of the NW Center of Excellence for Marine Manufacturing & Technology for Washington State. Patricia Townsend is a Regional Extension Specialist for Washington State University. She works with stakeholders throughout the Pacific Northwest on issues related to renewable energy, ecosystem services, and green infrastructure. Together, they have gathered data and formulated a plan for incorporating materials science modules as early as secondary education. This collaboration also aims to address the equity issues that come along with critical materials challenges by ensuring better access to STEM education for underrepresented populations. By developing these educational resources in materials science and making sure that they are accessible to all, we can help to improve STEM understanding and retention system-wide and grow the pipeline of future designers, technicians, and engineers. 

To learn more about JCDREAM’s efforts in education and workforce development, join us on December 8th for the latest installment of the Symposium Series. Our collaborators will introduce our educational arm, Materials Washington, and discuss the future of critical materials education in Washington State. 

Register Here.

JCDREAM Announces 2020 Seed Grant Winners

Categories: Articles, Funded Projects|

We are thrilled to announce the 2020 JCDREAM Seed Grant Awardees. The winners come from a range of institutions throughout the state of Washington. Their projects cover earth-abundant materials science from a variety of angles. We look forward to seeing the results of their research.

1. Materials Washington – Critical, Rare and Abundant Materials Educational Resources

In collaboration with the JCDREAM, MatEdU proposes to continue the establishment and coordination of Materials Washington – an alliance of community and technical colleges working collaboratively with industry, policymakers, and professional associations to advance Washington’s leadership role in the global materials environment. Materials Washington will collaborate across WA’s community and technical colleges to develop learning modules focused on critical, rare, and abundant materials that can be integrated into technician education programs and courses and raise awareness of the materials being used today in everyday life. Materials Washington will work with JCDREAM to promote and implement the JCDREAM Symposium and will host an annual meeting focused on earth-abundant and critical materials education. 

We recognize that a large number of clean and renewable energy technologies are dependent on rare earth elements and other expensive, difficult-to-source earth components. These technologies—wind turbines, solar panels, hybrid/electric car batteries— are critical to reducing carbon emissions. The need to share information about materials is key; therefore, the need to educate technicians in the handling of rare and critical materials as well as abundant Earth materials and their alternatives, is crucial. 

Principal Investigator: Mel Cossette | National Resource Center for Materials Technology Education, Edmonds Community College

Principal Investigator: Ann Avary | Center of Excellence for Maritime Manufacturing and Technology, Skagit Valley College

Industrial Collaborator: George Parker | Boeing

2. ChocoLED – Naturally Derived Color Converters for Solar Cell Efficiency Enhancement

ChocoLED envisions “Green chemistry for green energy.” They are dedicated to the development of environmentally sustainable technology for solar cell efficiency enhancements. By using bio-renewable compounds as the key ingredient, ChocoLED’s method eliminates several supply chain issues without compromising fluorescent efficiency. The efficiency of existing solar cell technology can then be even further improved by incorporating their material.

Existing color converters are inorganic phosphors relying on rare-earth or toxic elements. The production of most inorganic phosphors is largely dependent on rare-earth elements, making the supply chain subject to political motivations, which is particularly important given that 80-95% of global rare-earth production is still from China. In addition, rare-earth refineries involve a series of acid bath treatments and unhealthy doses of radiation, raising concerns regarding environmental pollution and laborer health. Next-generation materials, such as highly fluorescent quantum dots, consists of toxic heavy metals (Cd, Hg, and Pb), which are already restricted by the Restriction of Hazardous Substances Directive (RoHS) in the European Union. Looking toward the future, successful adoption and integration of ChocoLED materials into solar panels would prevent the introduction of critical materials, as well as toxic materials, into solar panel products. 

Principal Investigator: Christine Luscombe, PhD | University of Washington, Department of Materials Science & Engineering

Principal Investigator: Michael Pomfret , PhD | University of Washington, Washington Clean Energy Testbeds

3. Supply Chain Data Science – Critical Materials Decision Support System based on Machine Learning: Battery Materials Case Study

This project brings together a team of three professors (John McCloy, Scott Beckman, and Min-Kyu Song) in the School of Mechanical and Materials Engineering at Washington State University with complementary expertise in materials technology and industrial processes, data science, machine learning, and battery materials. They will collaborate with Microsoft battery researchers to create a data-enabled scaffolding to understand and quantify critical material supply chain risks in battery technologies. To achieve this objective, data will be harvested from a wide range of literature resources from government, private, and scientific communities, and advanced decision-making methods (including data science, machine learning, and decision support systems) will be applied.

The project will foster interactions between WSU and Microsoft on critical materials needs, and grow in-state expertise in critical materials issues at the academic level. The project will expose student researchers to methods in textual analysis methods in data science and will provide an opportunity for educational outreach to PhD students in the materials science and engineering program emphasizing economic and supply chain issues with today’s technologies, thus fostering awareness of these system-level issues as critical factors in the design process for the next generation of consumer devices.

During its collection, the data will be tagged as either open or proprietary. The open data, harvested from public literature, will be shared via a GitLab server managed by the WSU Voiland College of Engineering IT. Any proprietary data will be used in the analysis, which will be made public, but the data itself will remain undisclosed. Through the respectful stewardship and distribution of data, we hope to create a data-sharing project that rises to national importance. 

Principal Investigator: John McCloy, PhD | Washington State University, School of Mechanical and Materials Engineering

Principal Investigator: Scott Beckman, PhD | Washington State University, School of Mechanical and Materials Engineering

Principal Investigator: Min-Kyu Song, PhD | Washington State University, School of Mechanical and Materials Engineering

Industrial Collaborator: Microsoft

4. Open Access Performance Evaluation and Improvement of Second-Life Batteries for Stationary Storage Applications

Lithium-ion battery enabled electrification efforts within the United States aim to directly reduce fossil fuel contributions to climate change. However, there remain critical hidden costs that limit the potential benefits: high energy intensity of production, limited battery cycle life, and the associated economic barriers to disposal.

This project aims to improve the overall economics of Li-ion batteries (LiBs) in a circular economy by linking two disparate sectors: re-purposing retired electrified bus batteries (transportation) into grid-integrated energy storage applications (energy distribution). Deploying used bus batteries for second-life use is in its infancy. Significant uncertainty regarding the performance and remaining useful life of second-life batteries still remains

BattGenie has developed an advanced battery management system (BMS) using physics-based models that have demonstrated significant extension to battery cycle lives compared to standard methods of battery operations and that technology could advance the longevity and manageability of second-life battery applications. During this project, BattGenie, Washington Clean Energy Testbeds, Snohomish PUD, and King CountyMetro will partner to re-purpose and deploy used 100kWh battery modules on pumped hydro stations, with the goal of providing load-leveling and demand reduction services on Snohomish PUD’s distribution grid. 

BattGenie’s BMS will extend the remaining battery cycle life while simultaneously providing more accurate performance parameters and projected lifespan estimations. To contribute to the broader base of knowledge in this space, physical system integrity information and battery performance data collected from the baseline installations not using BattGenie’s proprietary technology will be shared in an open-access fashion, via a webpage that will link to both the BattGenie and the WCET websites. This will enable other researchers working on second use batteries to characterize and benchmark the performance of the used batteries for their respective planned usage. The database will be continuously updated as more data is collected from the Installations. 

Principal Investigator: Manan Pathak, PhD | BattGenie Inc.

Industrial Collaborator: Robert Marks | Snohomish County PUD

Industrial Collaborator: Tallon Swanson | King County Metro Transit

Industrial Collaborator: Evan Ramsey | Bonneville Environmental Foundation

Collaborator: Michael Pomfret, PhD | Washington Clean Energy Testbeds

5. Cellulose-based Nanocomposite Structures to Mine Lithium from Seawater

The growing use of Li-ion batteries has made lithium a critical resource, motivating researchers to explore its extraction from seawater. However, previously explored approaches remain resource-intensive and unsustainable for practical use. Given the low concentrations of lithium in seawater, to be economically viable, lithium extraction approaches must be both highly selective and inexpensive. Under this seed grant, the project team will develop inexpensive and environmentally sustainable nanocomposite structures with the necessary Li-ion selectivity.

Cellulose, the world’s most abundant polymer, can be easily sourced from agricultural waste biomass and can be scalably processed to prepare high-surface-area porous structures. This team will investigate three different configurations of cellulose-based scaffolds, namely molded hydrogel, 3D-printed hydrogel, and carbonized hydrogel. By introduction into the cellulose scaffold nanoparticles of metatitanic acid (H2TiO3), which is shown to selectively capture Li+ in the presence of other competing cations (Na+, K+, Ca2+), even at low Li+concentrations, we can develop an inexpensive, yet effective Li-ion extraction nanocomposite structure. The structure, morphology, mechanical properties, and Li+ capturing efficiency of the nanocomposite structures will be characterized and iteratively improved.

Once the nanocomposite structures are saturated with Li+, they can be regenerated and reused with a simple acid wash. The near-term goal is to develop the inexpensive nanocomposite and demonstrate its ability to reversibly capture Li+, and to perform thorough materials characterization and iterative optimization to achieve improved Li+ capture capacities with the new nanocomposite. The long-term goal is to couple the use of this material with electrochemical processes that generate regenerants on-site using seawater and renewable energy, to eliminate the need for regular chemical inputs for sustainable lithium mining from seawater. The outcomes of this work are of clear interest to the broader scientific community, and the project will offer research opportunities to several undergraduate and masters students contributing to their education. 

Principal Investigator: Eleftheria Roumeli, PhD |University of Washington, School of Materials Science and Engineering

Principal Investigator: Chinmayee Subban, PhD | Pacific Northwest National Laboratory, Energy and Environment Directorate

6. Durable and Selective Catalysts Based on Earth-Abundant Materials for Biomass Conversion

Supported metal catalysts play critical roles in the catalytic hydrodeoxygenation of biomass to produce fuels and chemicals. While noble platinum group metals (PGM) have been widely explored, much less expensive earth-abundant materials such as iron (Fe) are highly desired. Wang et. al. have recently discovered the promising activity of Fe-based catalysts in the selective hydrodeoxygenation of lignin-derived phenolics. However, rapid catalyst deactivation due to the oxidation of Fe and non-selective C-O/C-Chydrogenolysis in the liquid phase of hydrodeoxygenation are identified as two major issues. To address these issues, we have assembled a team with essential skills. Andrew Ingram from ADM will provide guidance and advice in ensuring the commercial viability of the catalyst systems developed, Mark Engelhard and Libor Kovarik from PNNL will conduct advanced catalyst characterization, and Jean-Sabin McEwen at WSU will provide theoretical calculations for the catalysts. 

Principal Investigator: Yong Wang, PhD | Washington State University, School of Chemical Engineering and Bioengineering

Principal Investigator: Junming Sun, PhD | Washington State University, School of Chemical Engineering and Bioengineering

Industrial Collaborator: Andrew Ingram | Archer Daniels Midland (ADM)

Fueling the Zero-Carbon Future through Earth Abundant Catalysts

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Fueling the Zero-Carbon Future through Earth Abundant Catalysts

Technical advancements, government policy, private sector progress, and individual choices all must come together to help reduce energy consumption and carbon output. At the right time and place, certain actions can serve as catalysts to achieve real change toward achieving these goals.

When conditions are right, electrocatalysts can do the same for chemical reactions. At the core, a catalyst saves energy in any process it is present in. Catalysis is essential for the chemical industry, a major contributor to 90% of all industrial chemicals produced. Over 30% of the global GDP depends on catalysis.

In addition to relying heavily on fossil fuels for energy, today’s infrastructure requires fossil fuels for chemical inputs to supply the carbon, hydrogen, and power needed to produce the majority of items that we use in our daily lives. The finite supply of fossil fuels, and the CO2 emissions they produce create a need for a cleaner, more stable energy source. Earth-abundant electrocatalysis can fill this need by enabling the creation of clean fuel from captured CO2 and H2O.

For example, creating fuel products from H2O and CO2 molecules requires catalysts to perform very different tasks. H2O molecules must be split through electrolysis, while CO2 needs to be activated and selectively converted into higher carbon chain products.

By combining the resulting carbon in CO2 and hydrogen from H2O, catalysts and renewable electricity can be used to create just about any fuel imaginable. If we use these abundant materials as carbon and hydrogen sources and rely on renewables instead of fossil fuels for energy, we can begin to move toward a circular energy economy.  Abundant and effective catalysts are crucial to scale this type of production, feed into carbon-neutral energy infrastructure, and fulfill the promising outlook on electrocatalysis. This circular energy economy powered by renewables and catalysis is the vision that JCDREAM is working toward.

Currently, the most popular catalysts come from the platinum group on the periodic table. Platinum group metals (PGMs) are a group of six elements that are both structurally and chemically similar. They are platinum, palladium, rhodium, iridium, ruthenium, and osmium. PGMs are highly valued for their wide range of applications. These metals are found in products we use every day, in the catalytic converter of your car, the medications you take, and countless electronic devices. They also play an important role in fertilizer production that has helped to sustain exponential population growth in the 20th century.

Because of their efficacy in so many applications, PGMs are in high demand. This demand has escalated to the point that mining alone does not supply enough to meet these needs. According to the U.S. Geological Survey, recycled platinum, palladium, and rhodium obtained from jewelry, electronics, and catalytic converters provided up to 24% of global platinum and palladium supply and about 27% of global rhodium supply in 2011.

The U.S. Geological Survey’s 2014 Platinum Group Elements Fact Sheet describes why it is so difficult to locate productive deposits of PGMs for mining:

  • The Earth’s upper crust contains only about 0.0005 parts per million (ppm) platinum.
  • The average grade of platinum-group elements (PGEs) in ores mined for their PGE concentrations ranges from 5 to 15 ppm.
  • In most rocks, platinum-group minerals range in size from less than a micron to a few hundred microns in diameter, so the presence of PGEs must be confirmed by laboratory analysis.
  • Over 100 minerals contain PGEs as an essential component.

Already, this is an issue of mismatched supply and demand. Growth in the world’s consumption of goods and technology and a push toward cleaner energy supply put even more stress on the supply chain of PGMs.

So again, we need to work on stabilizing the supply chain through recycling and pursuing alternatives. Part of what makes PGMs so challenging is the difficulty of substitution, but difficulty does not mean it is impossible. Thankfully many other more common transition metals like iron or nickel can be altered to achieve equal or better efficacy than PGMs by precisely modifying their electronic and/or chemical structures.

Professor Yuehe Lin of Washington State University has made significant strides in earth-abundant catalysts by creating a Nickel-Iron nanofoam for splitting water that is more effective than the typical Iridium oxide currently in use commercially.

Significant work is already being done to increase efficiency, find alternatives, and generally use catalysis to create cleaner energy streams. In Washington State alone, there are several scientists making impressive strides in the field. For example, in a new project funded by JCDREAM, Professor Yong Wang is working with major industry partner ADM to develop novel carbon-neutral fuels using earth-abundant catalysts.

One hurdle to overcome when using non-precious metals in lieu of PGMs is the formation of metal oxides – commonly known as rust.  Rusting slows important chemical reactions and lowers the efficiency of catalysts. WSU Professors Jean-Sabin McEwen and Yong Wang have made progress in preventing this from happening to iron-based catalysts used in bio-based fuel production in order to maintain higher levels of efficiency.

Another opportunity is pursuing more efficient use of PGMs, and single atoms of PGMs have been found to be even more effective than bulk material. Using these catalysts as single atoms allows us to stretch our resources. Work by the same team at WSU has successfully demonstrated that single atoms of platinum strategically placed on copper oxide are able to replace bulk platinum in vehicle catalytic converters, which prevent carbon monoxide emissions in our gasoline-powered cars.

Formic acid – as being explored by OCO Inc – can be used as fuel in a circular CO2 energy economy. It has a chemical formula of HCOOH – or quite literally H2 + CO2 – and can be used as a fuel in certain fuel cell systems.  Typically, the production of H2 from formic acid required palladium catalysts, but work by Su Ha has replaced the precious metal with molybdenum, a much more abundant resource.

These advances – and many more to come – can be implemented in the pursuit of cleaner fuels and ways to consume fuels more efficiently. Catalysis researchers in Washington are showing how there are various angles from which we can tackle this issue. Recycling, substitution with earth-abundant alternatives, and efficiency improvements for PGMs will all help to balance the supply and demand of these critical metals and vastly improve the supply reliability for catalysts.

On November 10th, 2020, JCDREAM is hosting Dr. Jean-Sabin McEwen and Dr. Steve Ciatti for talks on how we can use electrocatalysts to meet the energy needs of heavy-duty transportation in the pursuit of decarbonization. Ciatti is a Principal Engineer at PACCAR and will bring the industry perspective from the PACCAR Technical Center where they have worked tirelessly to electrify or otherwise reduce the carbon impact of their trucks. McEwen brings a wealth of knowledge in catalysis for sustainability and will share how much of the research in catalysis offers promising solutions to these problems, and how to address the issue of scale.

Register Here.

Batteries and Beyond: Energy Storage for a Sustainable Future

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Batteries and Beyond: Energy Storage for a Sustainable Future


The future of renewable energy is bright. Solar and wind energy are reaching economies of scale in many states, making the decision to rely on and invest in renewables much easier for companies, utilities, and even homeownersMany countries are further supporting this transition by setting aggressive carbon reduction goals for the coming decades. In all their plans, solar and wind play a major role in grid-scale energy solutions. The hitch? Solar and wind energy will both require very large gridscale storage solutions to overcome the challenge of their natural intermittence. Current and upcoming storage technologies rely heavily on critical materialsFurthermore, wind and solar can power current electric passenger vehicles, but battery technology is not yet viable for many other transportation options. Researching alternative solutions is the key to resolving these roadblocks and pressing on toward a renewable energy ecosystem. 

Due to the intermittent availability of wind and solar, the supply and demand curves for renewables on the grid do not match up. That mismatch creates a need for storage solutions to keep excess energy on hand to deliver when the sun isn’t shining and the wind isn’t blowing. Recently, studies have shown that lithium-ion battery storage is price-competitive with traditional peak-shaving on the grid for up to 4 hours. For demand management beyond 4 hours, lithium battery technology is still more expensive than traditional fossil fuel-powered peaking plants. 

While lithium batteries tend to lead the pack, their shortfalls leave room for novel battery technologies to find footing in the storage space. Researchers at The University of Texas at Austin have succeeded in creating cobalt-free lithium batteries without sacrificing performance. Natron Energy has developed a sodium-ion battery that eliminates the fire, toxic gas, and thermal runaway risks that lithium and lead-acid batteries have experienced. Even new twists on old technology such as carbon-enhanced lead-acid have made a comeback and may compete with lithium in certain markets.  All of these technologies shift away from critical materials and work to optimize earth-abundant materials to achieve the same goals. By expanding energy storage research in batteries and beyond, we can continue to drive these and other earth-abundant storage methods to compete with traditional methods like coal and natural gas. 

Lithium batteries are a leading technology because of their capacity for high energy density storage. They are the favorite for many applications, but full-scale grid implementation will require next-generation battery technology that simply isn’t available yet. Lithium batteries are an excellent resource in the clean energy revolution, but they are not without their challenges. Lithium batteries contain the critical materials lithium and cobalt. Dependence on these materials means the supply chain can easily become unstable. Cobalt supply is already somewhat at risk with high prices driven in part by the fact that two-thirds of the world’s supply originates in the Democratic Republic of the Congo and is then funneled through Chinese refining and battery production operations.  

As opposed to lead-acid batteries which are highly recyclable, lithium batteries are challenged in terms of recyclability. Their components are difficult and expensive to separate after disposal, and with a lifespan of about 10 years, we will soon see a massive influx of lithium batteries in landfills if recycling programs don’t ramp up.  The masses of Tesla batteries produced in 2012 are approaching that 10-year mark and we will need solutions to manage the end of their lifecycle. Lithium battery recycling programs such as the one developed by American Manganese will be crucial to ensure that component materials can be reused, and waste products don’t overwhelm our disposal resources. 

Wade Schauer of Wood Mackenzie Power & Renewables says, “Advances in energy storage will need to be more than just batteries to meet demand and likely will include technologies that have not yet been developed.” In 2018, his team wrote a report after the Midwest experienced a deep freeze. The primary question: What would have happened if the power grid had relied exclusively on renewable energy—just how much battery power would have been required to keep the lights on? The answer was daunting. In order to cover the energy demands during this period of extreme weather, utility-scale solar would need to increase from 3.4 gigawatts to 575 gigawatts. Wind capacity from 47.8 gigawatts to 194 gigawatts. And if we continue to use nuclear plants, we will still need an additional 228.9 gigawatts of energy storage to meet this demand. 

Lithium batteries are also not yet a complete solution for some major industries beyond the grid. Significant carbon reduction must happen in the long-haul trucking, marine, and aerospace industries in order to meet the aggressive goals around the world. Unfortunately, those are applications where lithium batteries are limited due to many factors including their cost, weight, recharge time, and capacity. Industries such as these will require research to broaden into storage opportunities including zero-carbon solutions that function in a similar way to fossil fuel-based storage. Companies such as Boeing, PACCAR, and Vigor, are building planes, trucks, and ships that will still be running in 2040 when many zero-carbon goals are to be met including those of Washington State. 

Storage solutions such as pumped hydro, compressed air, and gravitational energy storage systems like Energy Vault are attractive because they don’t rely on critical materials, but these can only be deployed in stationary applications like the power grid.  For long haul heavy-duty transportation, electro-fuels will be needed.  Thescompounds store energy chemically – the same way fossil fuels do, but they are produced using renewable, low-carbon energy and could even use atmospheric CO2 as a feedstock.  Again, critical material issues pop up with catalysts like Ruthenium, and Iridium being used to produce hydrogen from wind or solar.  Then PEM fuel cells in turn rely on platinum to convert the hydrogen back to electricity which can be used to power the grid or transportation technology – thus completing the storage loop.  Perhaps a more elegant solution involves the production of hydrocarbon fuels from hydrogen and CO2 feedstock.  Any number of fuels could be produced to be compatible with jet turbines, diesel engines, or natural gas turbines, but each of these requires a unique catalyst – often a critical material. JCDREAM works to fund researchers studying earth-abundant alternatives in energy storage. WSU’s Yuehe Lin has developed a system for splitting water to make hydrogen fuel. His method relies on catalysis which would normally require precious metals, but he developed a catalyst using earth-abundant elements. This type of research is key to moving forward in the hydrogen economy and clean energy storage. 

Energy storage has broad implications – it will bolster a grid that relies on renewables and enable the electrification of all types of transportation. Current energy storage comes from coal, fossil fuels, and pumped hydropower. Pumped hydropower accounts for 97% of energy storage in America, but it does not have the capacity necessary to fully accommodate the increase in energy demand that society will demand over time. Aside from hydro, lithium-ion batteries are still the class favorite. We are learning that energy storage requires different technology to meet the demands of different markets. While lithium batteries may work for electric vehicles and short term grid backup, long-haul vehiclesaircraft, overnight, and multi-day grid power need enormous amounts of stored energy from technology that isn’t available yet, but we hope to see it soonWith the help of continued research and the exploration of earth abundant alternatives, there is strong hope that energy storage will grow with demand and spare the vulnerable supply chains of critical materials. 

Sustaining the True Earth-Abundance of Wind Energy

Categories: Articles|

Sustaining the True Earth-Abundance of Wind Energy



Wind power has been a long-standing poster child for the future of a cleaner energy grid. A 2017 NREL study showed that deploying 30% wind and 5% solar as the primary energy sources on the grid can reduce fuel costs and carbon emissions significantly – by an estimated 40% and 25-45% respectively. This would be the rough equivalent of 22-36 million cars being taken off the road.  

The wind sector continues to grow and shape the future of the grid and the US’s energy independence. US wind power has more than tripled over the past decade and is the largest source of renewable energy in the country at nearly 11gigawatts (GW)As wind power on the grid increases, it’s crucial to keep in mind the supply chains that feed into renewable energy sources. While wind is a spectacular resource, there is significant technology and other natural resources that go into creating the turbines, motors and blades that enable us to capture, store, and distribute that energy. 



As is always the case, cost and storage are major factors in discussing renewable energy. Wind energy prices continue to fall year after year as the efficiency of turbines increases, and wind is now the cheapest source of new-build energy generation. In terms of storage, wind faces very similar challenges to those discussed in our last post on solar energySince wind production is naturally intermittent, storage is the only foreseeable way that renewables can meet 100% of the energy demand on the grid without any assistance from fossil fuels. Fortunately, new-build battery storage is already cheaper than traditional peaking plants. As these plants are being retired, implementing battery storage peaking facilities in their place will vastly improve the capabilities of a renewables-first grid. 



On the tails of Lockheed Martin winning a contract to upgrade missile batteries for Taiwan this summer, China threatened to cut off the US defense contractor from their supply of rare earth elements (REE) and reminded the world that they are in control of a large portion of global REE deposits. Even with China supplying other countries freely, competition for these elements can be stiff as new and sustained growth in REE supply is increasingly difficult to achieve.  

REEs such as Neodymium (Nd), Praseodymium (Pr), Dysprosium (Dy) and Terbium (Tb) are integral to creating permanent magnets in turbines that make up almost ¼ of the US wind market. Due to the unique nature of these elements, there have been no promising substitutions for REEs in typical NdFeB permanent magnets. Current research does however indicate that the material efficiency of Nd and Pr necessary for permanent magnets is improving, meaning that the quantities necessary to produce the magnets may fall.  

In addition to wind power REEs are crucial to defense technologies, hybrid and electric vehicles, consumer technology, and more. In such high-demand situation, it is imperative that we investigate and pursue potential alternatives. WSU Everett’s Dr. Gordon Taub leads a significant effort to explore these optionsAfter winning a 2019 JCDREAM seed grantTaub’s Wind Energy Team at WSU Everett & Everett Community College has begun researching alternative turbine designs with the goal of improving efficiency and REE reduction. They are also conducting a review of state-of-the-art research into the wind market to show how much rare earth consumption is really taking place. 

Based on Dr. Taub’s review the offshore wind market is currently dominated by a Siemens turbine that is free of rare earths, but market forces such as the drive for larger and more offshore wind turbines are likely to drive the industry to use more REE-dependent generators in the near future 

High-REE turbines account for about 23% of US wind capacity, weighing in at a hefty 216kg of REE per MW of output. Though lower- or no-REE turbines power the majority of the wind energy industry, low-REE turbines still use anywhere from 80kg-160kg of rare earth material per megawatt of output depending on the speed of the turbine’s transmission. All in all, wind applications consume an estimated 2600 metric tons of rare earth material annually.  

It’s encouraging that wind industry manufacturers and materials scientists have already begun considering and implementing sustainable alternatives to the turbines that rely heavily on REEs. If manufacturers can continually resist market pressures to deploy high-REE machinery as demand rises, the industry can help to alleviate strain on the rare earth supply chain and secure more sustainable growth.  

Securing Solar as the Backbone for Carbon Reduction

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Securing Solar as the Backbone for Carbon Reduction



Solar is a frequent topic when discussing the world’s clean energy future. Inexpensive renewable electricity from solar is foundational to other carbon-reducing technologies, alternative fuels, and storage options. Data shows that deploying renewables as the primary energy source on the grid and supplementing peak times with fossil fuels can reduce fuel costs and carbon emissions significantly.  

There is understandable resistance to change in the utility industry – decades of infrastructure have been optimized for existing energy sources and adding renewables would require adaptation for those sources and the grid system at large. While the outlook on solar energy is very positivethere are significant obstacles to overcome before grid-scale implementations can be the norm.  


Cost is one of the biggest success factors for solar in the USTo date, the US solar industry has thrived on significant subsidies and policy support. As a result, experts have expressed doubt that renewable sources would be able to compete without those subsidies. The most recent data speaks differently: by the end of 2019, the levelized cost of energy (LCOE) for renewables was falling fast and competing with traditional sources even without subsidies. Forbes explains, “Utility-scale renewable energy prices are now significantly below those for coal and gas generation, and they’re less than half the cost of nuclear. The latest numbers again confirm that building new clean energy generation is cheaper than running existing coal plants.” 

In 2017, the National Renewable Energy Lab (NREL) conducted a study on integrating large amounts of wind and solar into the existing electric power systems in the Western US. They found that integration of 35% wind and solar energy would reduce carbon emissions by 25%-45%, fuel costs by 40%, and system-wide operating costs by up to 14%. The transition would result in a potential 2%-5% operating cost increase for the fossil-fueled plants that would stay deployed to manage the intermittent nature of solar and wind. 

In many states the cost of solar-generated energy is already less expensive than existing grid energy, reaching the inflection point of grid parity. But it’s likely that solar energy will have to far surpass grid parity to fully displace fossil fuels at gridscaleRaj Prabhu of Mercom Capital Group explains: “Reaching grid parity in itself does not automatically make solar the frontrunner. Many countries and regions have reached grid parity but have struggled to manage the intermittent nature of solar and the grid issues that come with it…Reaching true grid parity will be when solar is financially viable after including the cost of power infrastructure or when the combination of solar-plus-storage reaches grid parity.” 


In 2018, NREL conducted a benchmark study of solar-plus-storage that helps to inform where the grid parity level could be for those systems. Based on NREL’s data, storage systems are price competitive with traditional fossil-fueled peaking power plants up to the 4-hour mark. 

Energy storage adds a significant level of effort and expense to the way we develop and deploy solar at utility-scale. Storage is the only foreseeable way that renewables can meet 100% of the energy demand on the grid without any assistance from fossil fuels 

The most common storage deployment involves lithium-ion or lead-acid batteries. Each of these has its unique challenges and cast a shadow on the idea of solar. Lithium batteries carry cost, critical materialsdegradation, and recyclability challenges while lead-acid batteries suffer from a limited depth of discharge, cycle life, and efficiency. 

Even if battery storage is not yet scalable to the massive level of the full power grid, there are other options in development as well. Energy storage is possible through thermal storage, phase change materials, hydrogen, and other low-carbon fuelsResearch into these alternatives will rely on low-cost renewable energy integrated into the grid. 


The excitement of grid-scale solar always gets more complex when followed up with the reality of storage. This theme carries through when we consider the materials and supply chains used in these energy systems. Solar cells and storage batteries each use several critical materialsand their respective lists are very different. The most common solar cells on the market use indium, known for its usefulness as a semiconductor. Indium is produced mainly as a byproduct of zinc, and to a lesser extent as a byproduct of copper, tin, and polymetallic deposits from mineral ores containing less than 100 parts per million (ppm) (or less than 0.01%) indium.  

To date, demand for indium has been considered fairly small despite its widespread use in electronics touchscreens and photovoltaicsNREL estimates that “New, widespread use could dramatically alter overall demand, which could grow faster than production capacity for up to about a decade, given the length of time needed to significantly increase production capacity. During this decade, indium prices could be high and volatile enough that thin-film manufacturers find it uncompetitive compared to competing PV materials.” With clean energy proponents hoping for solar on the grid and continued innovation in photovoltaics, this capacity issue is imminent.  It then points directly back at the cost issues discussed earlier since solar’s success will be heavily dependent on cost competition. 

The next frontier in the photovoltaic market is multijunction solar cells. Multijunction cells have already doubled the efficiency of solar generation and exhibit the potential to nearly quadruple it. Unfortunately, multijunction cells are not commercially viable due to the high cost of production. If indium prices were to soar, high-efficiency multijunction (MJ) devices would be even further from viability. In addition to indium, MJs rely on the use of other semiconductors containing gallium and germanium which are subject to the same type of market volatility due to their status as companion metals that can only be sourced as byproducts. 

The economic indicators of indium, gallium, and germanium point to costs increasing as demand rises. While these materials enable high-performance photovoltaic technologies, they are also obstacles on the path to grid-scale implementation. In order to overcome these challenges and move toward grid-scale renewable solar energy, research and development of earth-abundant alternatives to these critical materials are crucial. 

University of Washington’s Professor J. Devin MacKenzie has been researching one such alternative to indiumWith the help of a 2019 JCDREAM grantMacKenzie and the Washington Clean Energy Testbeds were able to purchase and install an ultra-high-resolution printer capable of printing transparent conductors. They have developed a conductive film using earth-abundant copper that can outperform indium tin oxide in photovoltaics 

If scaled, this type of technology could help to circumvent the criticality issues of indium and create a more secure supply chain for solar cells. While it would be nice to believe that there is no limit to how technology can advance clean energywe must address the very real constraints of the critical materials that power many of these innovations. The earth-abundant materials research of today will be instrumental in ensuring that critical material shortages don’t impede our progress in the not-so-distant future. 

Clean Energy Challenges & the Need for Earth-Abundant Alternatives

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Clean Energy Challenges & the Need for Earth-Abundant Alternatives



With offices closed and commuters working from home, COVID-19 has caused a major dip in the demand for energy. As a result, electricity and oil prices have plummeted along with demand. As the pandemic has drawn on, both traditional utilities and clean energy companies are being forced to adapt. 

In the last several weeks, the tide seems to be shifting in favor of renewable energy sources. With lower demand for energy overall, 2020 has seen a disproportionate shift away from coal as an electricity source and increased market share for renewables.  

The decline of coal and fossil fuels as sources of electricity for the grid is not just a symptom of the pandemic; it has been happening for years and is unlikely to recover. “Technological innovation and policy support are driving peak fossil fuel demand in sector after sector and country after country, and the COVID-19 pandemic has accelerated this. We may now have seen peak fossil fuel demand as a whole,” says Kingsmill Bond, Carbon Tracker energy strategist and report author.  

Coal plants are being shut down and decommissioned earlier than planned in efforts to reduce operating costs for utility companies. Again, this is not just a response to pandemic-related challenges; research has shown that by 2025 86% of the U.S. coal fleet will be more expensive to run than local wind and solar generation as replacements. In recent years, renewables have dipped below the cost of installing natural gas on the grid. Even when paired with storage which is still considered too expensive, renewables plus battery storage can out price natural gas for sub-four hour duration – potentially obsolescing natural gas peaker plants that are used to help meet short term demand spikes.

COVID-19 has expedited the impending tumble of the American fossil fuel industry that has been heavily leveraged and subsidized. With low demand and no leverage, the US is unable to keep its fossil fuel companies solvent and compete with other countries. In order to achieve energy independence or energy dominance, the US must lean into renewables.  

Early in the pandemic, much of the clean energy sector faced the grim outlook of a market that wouldn’t bear any higher-cost renewables. The continued financial hardship brought on by COVID-19 still poses a significant challenge for clean energy; over 620,000 clean energy workers have lost their jobs since the start of the pandemic. Even so, renewable energy sources are expected to add nearly 50 times more net new capacity than natural gas, coal, oil, and nuclear power combined in the next 3 years 

We must look at the full picture of sustainability as we transition the grid toward renewable energy sources. This economic shift is a major opportunity to make the true sustainability of renewables a priority. There are several underlying issues we must address when planning for the future of renewables: materials, supply chains, and lifecycles. What materials are being used to create these energy sources? Are their supply chains sustainable and ethical? What is the lifecycle of the renewable energy source and what happens to it when it is retired? 

Many renewable energy sources already have answers to some of these questions, but not solutions to the challenges they pose. For example, wind turbines contain rare earth elements in their generators. The supply chain of these elements is not particularly sustainable. In addition, wind turbine blades are not recyclable, leaving thousands of tons of waste to be buried when a turbine is retired and requiring virgin materials for each new build. 

Solar panels also come with unique challenges; most panels contain critical materials, they are difficult to separate for recycling, and the US hasn’t implemented wide-scale recycling programs for their components. Washington is leading the way for solar panel recycling thanks to the vision of Rep. Norma Smith and Rep. Jeff Morris. In 2016, the House passed trailblazing legislation co-sponsored by these state representatives requiring manufacturers to collect their panels at the end of their useful life for recycling. This is an excellent step forward for Washington, but more needs to be done to manage the mass of panels headed for the waste stream nationwide. 

Currently, only 30-40% of the US’s energy demand can be met through renewables like solar and wind due to their dependency on the weather. The future of renewable energy sources for the grid is highly dependent on improved energy storage solutions. Lithium-ion batteries have typically been the go-to application for energy storage, but alternative solutions are crucial due to the challenging supply chains of lithium battery materials. 

“Increasing the availability of critical materials and discovering earth-abundant alternatives for them is essential to America’s energy security and will also open new avenues for commercial applications,” said Dr. Chris Fall, Director of DOE’s Office of Science. “While we’ve seen real progress in this field, both basic and applied research is needed to secure the availability of the resources that are critical for today’s technologies.” Federally, the Department of Energy has also allocated significant resources to research into critical material alternatives and clean energy initiatives. JCDREAM supports Washington’s clean energy future through funding and facilitating research projects into earth-abundant materials that address the need for continued improvement and innovation. Advancements in battery technology, catalysis, and education programs have been made through JCDREAM’s seed grant program that will shed light on the path forward.   

The shift to powering our grid with more renewables is already in progress. To ensure its success, we must address issues throughout the lifecycle with energy storage, technology recyclability, and material sustainability. While the pandemic may be a near-term obstacle for the clean energy industry, the transition to renewable and sustainable energy sources has already become unstoppable. 

Bringing it Home: Implications of Onshoring Rare Earth Mining

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Bringing it Home: The Implications of Onshoring Rare Earth Mining



In our last post, we talked about China’s rare earth dominance and the US’ efforts to onshore rare earth mining. Onshoring eliminates some of the supply risk that comes with sourcing materials from other countries, but it comes with its own set of significant challenges. Even with the expected improvements to health and environmental oversight in the US, the downsides of mining these elements domestically are heavy. At least two proposed laws this year aim to grow American rare earth mining, but we must be diligent to execute domestic mining very carefully and seek out ways to reduce the need for newly mined materials.


US history has been largely impacted by mining, with increased access to our natural resources playing a major role in our economic growth and industrial dominance. The Gold Rush of 1848-1855 drastically increased the population in the Western US and kickstarted the nation’s participation in the industry. However, for over 100 years after the Gold Rush, mining operations in the US were not well regulated. As a result, the US experienced several disasters both during the mining boom and decades later.


One such disaster happened just 5 years ago. The Gold King Mine had been abandoned for 95 years when a 3-million-gallon spill released contaminated water into rivers that reached over 5 states. The contaminated water built up in mining tunnels after wastewater pumps were shut off when mining ceased. While it seems like a one-off accident, the numbers are daunting.


Data shows that hardrock mining is the largest toxic polluter in the US. The Bureau of Land Management estimates that there are up to 500,000 abandoned mines in the country, which would cost taxpayers as much as $54 billion to reclaim and remediate. Rare earth mining and processing are typically even more harsh on the environment than other hardrock mining practices. Many rare earth deposits contain thorium and radium that require special processing to keep radioactive waste out of the groundwater. Rare earth ore produces lower yield than other ores, meaning there is much more waste – up to 2,000 tons of toxic waste per ton of output.


From the 1960s to mid 1980s California’s Mountain Pass Mine single-handedly made the US the dominant supplier of rare earths. In the 1980s China made its entrance into commercial scale rare earth mining, and their efforts to drive down the price of rare earths made it difficult to compete. China’s focus was low costs while the US government was making a push for worker safety and environmental protection. The Mine Safety and Health Act (MSHA) of 1977 was a catalyst for much-needed improvements to mining operations and a sharp decline in fatalities, but many mines could not stay financially solvent with increased regulation brought by the act.


Even with the MSHA in effect, it has been a constant struggle to appropriately govern the American hardrock mining industry. Before 2001, hardrock mining companies were not being held accountable for the effects of their operations. They did not have to make assurances that they would cleanup defunct sites or even pay into a reclamation fund. This has left the US EPA billions of dollars short of being able to reverse the damage from our storied mining history.


Part of why the US is no longer dominant in rare earth production is the struggles and eventual closure of the Mountain Pass Mine. With China gaining market share and setting aggressively low prices in the early 1980s, Mountain Pass began piping wastewater 14 miles away to increase processing capacity. This resulted in 60 spills of hazardous and radioactive waste into the surrounding desert and protected national land. The mine’s owner, Molycorp, could not face the cleanup costs mounted by the EPA and ultimately shut down all processing and mining operations within 3 years. They reopened briefly from 2012-2015 before declaring bankruptcy and being bought out by a consortium with Chinese ties.


The US’ only rare earth mine was less than perfect in its last decade of operation. China’s rock-bottom prices made it nearly impossible to operate within US environmental standards and compete on price. We have the technology, we have the resources, and we have the rare earth deposits, but we have not been able or willing to shoulder the environmental costs of rare earth mining. If the market starts paying the real cost of rare earths instead of China’s artificially low cost, domestic rare earth mining could still work.


A new rare earth mining effort is proposed in West Texas’ Round Top Mountain with a processing facility in Colorado. This rare earth deposit is an exciting resource opening the possibility of rare earth independence and mining with better regulations from its inception. The fact is that we can’t afford an environmental disaster at this location; the mountain is less than 10 miles from Texas’ thoroughfare I-10, and less than 20 miles from the Rio Grande. The Rio Grande watershed provides drinking and irrigation water for more than 6 million people and is already drying up. We should be asking the constituents of Texas if this is a risk they want to invite into their backyard. If the answer is yes, we are obligated to do everything we can to prevent the problems we have seen in China, Colorado, California, and many other mining towns.


Lax regulations in China’s rare earth mining industry have resulted in irreversible human health costs and environmental damage. But it’s clear that the US has mining problems of its own. While regulation would indeed be better here, the environmental impact of rare earth mining is extremely difficult to offset regardless of where it takes place. This fact needs to be considered as we plan for new rare earth mining operations stateside. We need to make concerted efforts to lower the demand for newly mined rare earth minerals. A focus on recycling programs and research into alternative materials and performance improvements is crucial for the country’s environmental health and longevity.

Mined in China: Reducing Dependence on Chinese Rare Earths

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Mined in China: Reducing Dependence on Chinese Rare Earths



China has been a hot topic since the start of the pandemic. The world has looked to China for answers in the battle against the virus and its origin, while still depending on them for major resources to keep businesses running. In the first of our COVID-19 blog series, we discussed how shutdowns across China have forced many companies in the US to realize the depth of their dependence on Chinese imports. 

Global interdependence is not a new concept. There are several industries in which global powers are at the mercy of China’s supply chains. China’s supply of rare earth elements is particularly troubling since these elements are used in many industries that make up the backbone of the US economy. From 2014-2017, China supplied 80% of the US’s rare earth consumption. These elements made their way into aircraft engines, medical devices, TV and computer screens, and high strength magnets for cell phone speakers, wind turbines and electric vehicles. 

China has been the primary global supplier of rare earth elements for decades. They are responsible for 70% of global output despite only controlling 1/3 of the world’s rare earth element reserves. China’s government has poured significant resources into developing rare earth mining and processing infrastructure, and their lax regulations in the REE industry have created serious problems. In 2012 even China’s State Council reported that rare earths operations in the country cause “increasingly significant” environmental problems year after year. 50 years of mining and processing has “severely damaged surface vegetation, caused soil erosion, pollution, and acidification, and reduced or even eliminated food crop output.” The council also stated that most Chinese rare earth plants produce wastewater with a “high concentration” of radioactive and toxic residue. 

Rare earth mining and processing are uniquely challenging. While not exactly rare, these elements only exist in high enough concentrations to be pit-mined in certain locations – like the Bayan Obo region of China or the Mountain Pass mine in California.  The fact that REEs are so chemically similar to each other, means that they usually coexist in a single geological ore formation.  That similarity between elements also makes them very difficult to separate from each other.  This attribute of REEs called companionality makes it nearly impossible to isolate a single metal for mining and results in large amounts of waste as the refined rare earth oxide is extracted from ore. Mining and separating rare earths and companion elements require massive amounts of chemical solvents, acids, bases, energy and fresh water. The process is very wasteful and harmful to the environment if it is not managed properly.  

While mining is the known and accepted method for acquiring these metals, it is important to consider other options – replacement and recycling. Rare earth elements are notoriously difficult to substitute because of the unique properties and performance-enhancing capabilities derived from their electron structure. Despite these challenges, Hitachi and Nanosys were each able to develop products that successfully replaced rare earths in their application. Apple designed a robot to recover rare earth metals from devices that typical recyclers did not have the capability to separate. It is this type of research and deployment into earth-abundant alternatives and recycling that will contribute to the successful shift away from China’s rare earth supply.  

China has succeeded in rare earths by continually driving down costs, and by willingly taking on the environmental damage and human health risks associated with such low costs. Paired with the high costs and regulatory difficulty of establishing new mines in other places with REE deposits, China maintains dominance while other countries struggle to even get a foothold in the market.  

This time last year, China’s President Xi Jinping alluded to a cutoff of rare earths sent to the US and prioritization of China’s domestic consumption of rare earths. These comments raised concerns in the US and spurred efforts to secure a domestic supply of rare earths. Last week, Ted Cruz (R-TX) proposed a bill to fund and revive the US’s domestic rare earths industry with tax breaks for mine developers and the companies who purchase their products. While this moves us away from dependence on China, returning rare earth mining to the US will require diligent planning and management to avoid the environmental and human fallout seen in China. 

Onshoring rare earth production back to the US has several implications when compared to the current situation. The US generally has higher standards for workforce safety when compared to much of the world, meaning domestic rare earth production should come with a much lower human health cost. But the market needs to be prepared for a higher price tag. US-mined rare earths will likely be much more expensive due to the startup costs of new mines, tighter safety regulations, more expensive labor and higher standards for environmental consciousness in mining and processing. Cruz’s proposed bill would place the burden of the higher prices on taxpayers.  

The bill incentivizes mines and manufacturers with large tax cuts in order to jump-start the rare earth industry domestically. It eliminates the sticker shock for manufacturers with a tax break of up to 200% of the price tag of US rare earths, but that break is just another subsidy that comes out of American public’s pockets. The new price tag will reflect something much closer to the full cost of using REEsNo more outsourcing waste, human health problems and environmental damage to another country just because they’re willing to take it on. 

By mining for rare earths in the US, we will reduce the global environmental and human rights impact of our consumption. Bringing rare earth production back to the US will also diminish some dependence on China’s rare earth supply but it does not fully address the bigger issue: we need to reduce our consumption of rare earth materials. In order to lessen the environmental risks that are unique to rare earth mining, demand for rare earths must decrease. Through the exploration of alternative earth-abundant materialstechnology that makes more efficient use of rare earths, and recycling programs, we can decrease the amount of mining required to fill domestic demand and reduce those impacts even further. 


COVID-19 Deepens Social Equity Challenges

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COVID-19 Deepens Social Equity Challenges



Several states are beginning to lift their stay-at-home orders in hopes of reviving the economy and getting people back to work, but data shows that this may come at a heavy cost to disadvantaged populations. The CDC and WHO have issued guidance in efforts to control the virus: social distancing, hand washing, and respiratory etiquette. But how does one maintain their distance while living in a homeless shelter or wash their hands frequently while living in a car with no running water? What about the essential worker who delivers the nation’s food supply with limited access to protective equipment? How do we mitigate the risks to these populations? 

Many essential workers are low-income employees who often cannot pay for unexpected medical costs – even to be tested for COVID. Everyone has heard the media emphasize the importance of testing, but low-income patients account for less than 0.32% of confirmed cases worldwide. This extremely low number indicates that most of the low-income population does not have access to testing. 

Also lopsided is the proportion of low-income workers who can work from home. The luxury of sitting in the safety of our own homes while earning a full paycheck is reserved for earners in the top quartile with more than 60% able to work from home, while less than 10% of low-income workers in the US can perform their jobs remotely. 

Another disproportionate effect is seen in the hospitalization rate of confirmed COVID-19 patients. In a study conducted by the CDC, 33.1% of hospitalized patients were African American while only 12.7% of the US population and 18% of the study’s population is African American. Clearly the hospitalization rate of African Americans for COVID-19 is much higher than other ethnic groups. 

While the imminent threat of deadly disease raises the stakes, these social equity challenges existed before COVID-19, and they stretch far beyond the US. There are entire industries in the developing world where people are risking their safety and health for much less than the public’s access to food and healthcare. Our first-world patterns of consumption drive many in the developing world to work in dangerous conditions while leaving a trail of environmental disasters with devastating long-term health effects. 

Entire communities are dedicated to sourcing the materials in our cell phones, computers, electric cars, and solar panels. The largest is Baotou in Inner MongoliaThe city of 2.5 million people is almost entirely dedicated to mining and processing rare earth materials. Processing creates waste tailings that are pumped into massive holding ponds without a proper linerallowing the toxins to leach into the groundwater. Drinking water in the city is already suspected to be impure, and the tailings are polluting the Yellow River which is a major water source for northern China. 

Child miners in the Congo spend long days digging for the cobalt that goes into the lithium batteries that power most of the first world’s must-have tech gadgets. Despite lawsuitsexposés, and direct contact with major suppliers the cobalt industry continues to employ child labor and unsafe working conditions, and major companies continue to deny any knowledge or patronage of these parts of the supply chain. These cases are not unique. Several critical materials are sourced through supply chains fraught with human rights and health issues, and they will continue to be if consumption patterns and accountability don’t change. 

COVID-19 has opened our eyes to how disadvantaged populations still cannot access the necessities that would enable them to stay home and stay healthy. Our front-line and essential workers are sacrificing their safety in order to uphold the quality of life for others in this trying time. We need to consider this as we make decisions, whether it’s leaving the house or purchasing electronics. Underprivileged lives should not be endangered for our creature comforts. 






COVID-19 Forces a Novel Definition of National Security

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COVID-19 Forces a Novel Definition of National Security  



With the US still working out how to respond to COVID-19, national security must be strongly considered in recovery plans. Though not a direct attack from another world power, the challenges of the pandemic are a significant threat. The mounting death toll, as well as supply chain, staffing and capacity struggles in the healthcare system highlight new considerations to be made as we define and pursue national security. John McLaughlin, former deputy director of the CIA, warns “COVID-19 threatens to act — or is already acting — like a sort of international circuit breaker, impeding the secure flow of things we depend on in our daily lives, from medicine and food to cars and smartphones.” 


As discussed in our last post, the US has major dependencies on imports for crucial supply chains. Just as the security of our medical system is overly reliant on the Chinese supply of PPE and medications, our technology and military sector is overly reliant on critical materials from China and other even more challenging regimes. US reliance on imported critical materials, altered military operations due to COVID-19, a volatile energy security outlook, and numerous other factors warrant concern around general military preparedness. 


While much of the world is focused on helping one another and the global community during the pandemic, times of uncertainty create opportunities around the world for authoritarian regimes, dictatorships, and other governments to consolidate their power. This power imbalance creates an uneasy climate of suppressed speech and protest, sometimes leading to military action and even martial law. It is crucial that we maintain our national security and response capabilities during these times. 


Defense News states “For years, supply chain experts warned about the potential for China to cut off access to the critical materials found in almost every major weapon system, from fifth-generation fighters to precision-guided munitions. Even a modest decrease in the availability of rare earth materials results in increasing prices for the elements, but severe and sustained shortages could threaten the ability of American defense contractors to produce systems vital to our national security.” 


Even if the US doesn’t depend directly on China’s supply of critical materials for defense applications, we are susceptible to price fluctuations and supply disruptions. These challenges are inevitable when resources are geographically or politically concentrated and plagued with environmental or human rights issues. These are all further reasons for continuing to pursue domestic supply and earth-abundant alternatives for critical materials. 


While the extent of our dependency on imported critical materials may seem daunting, we are on the right track as the US government has already begun work to secure our supply chains. A key to success in ensuring our national security and military capability will be maintaining a focus on diversification of supply and research in earth-abundant alternatives as we move forward during and after the pandemic.