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National, international awards recognize faculty innovation in ASU's School of Molecular Sciences

June 7, 2019

The Arizona State University charter describes a commitment to linking innovation with the advancement of research and discovery of public value. The establishment of the School of Molecular Sciences from the Department of Chemistry and Biochemistry embodies this commitment to research that directly addresses such major public and societal issues.

Current School of Molecular Sciences research takes a molecular approach on issues such as the identification and treatment of disease, the development of new strategies for renewable fuels and the creation of new materials for electronics and nanodevices. Recent School of Molecular Sciences recognized faculty. Download Full Image

Research at the School of Molecular Sciences has previously been recognized in terms of the quality and impact of its publications. The school is consistently in the top 10 among chemistry and biochemistry programs for publications in the journals Science and Nature, and a study by Thompson Reuters ranked the school No. 6 in terms of publication impact, ahead of MIT, Stanford and Berkeley. 

The school has recently been receiving a different form of national and international recognition in terms of faculty awards. The last two to three years have been particularly successful. 

“Amazing discoveries are taking place at the School of Molecular Sciences,” said Neal Woodbury, director of the School of Molecular Sciences. “We need to share our successes and tell our story; if you choose to attend ASU, you will be getting a world-class education and have the opportunity to work with top-tier faculty and do truly innovative research.” Importantly, these recognitions have been earned by faculty at all levels, from the most junior to the most senior.

The school is proud to highlight the recent accomplishments of its faculty who represent both the foundation and the future of innovative research. 

President's Professor Ariel Anbar

2019 European Association of Geochemistry Science Innovation Award — The award recognizes scientists who have recently made particularly important and innovative breakthroughs in geochemistry.

2017 Teaching Innovator Award — Professor Anbar is recognized by the Chronicle of Higher Education in their inaugural list of teaching innovators.

Regents' Professor Austen Angell

2019 Gothenburg Lise Meitner Award — The award from the Gothenburg Physics Centre recognizes a breakthrough discovery in physics.

2018 ISPE Galileo Galilei Award — This award from the International Symposium on Polymer Electrolytes recognizes the promotion of ionic liquids in science.

2018 Otto Schott Research Award — The award recognizes outstanding scientific achievement in the field of glass and ceramics.

Regents' Professor Peter Buseck

2019 Roebling Medal — The Roebling Medal is the highest award of the Mineralogical Society of America for scientific eminence as represented primarily by scientific publication of outstanding original research in mineralogy. 

Assistant Professor Alexander Green

2017 NIH New Innovator Award — The award from the National Institutes of Health supports exceptionally creative early career investigators who propose innovative, high-impact projects.

2017 DARPA Young Faculty Award — The Young Faculty Award program identifies and engages rising stars in junior research positions.

2017 Sloan Foundation Research Fellowship — The fellowship is awarded to early-career scholars described as the most promising scientific researchers working today.

Professor Sidney Hecht

2019 Senior Member of the National Academy of Inventors (NAI) — NAI Senior Members are active faculty who have produced technologies that have brought, or aspire to bring, real impact on the welfare of society.

Professor Joshua LaBaer

2018 Fellow of the National Academy of Inventors — The NAI Fellows Program highlights academic inventors who have demonstrated a prolific spirit of innovation that has made a tangible impact on quality of life, economic development and the welfare of society.

Assistant Professor Gary F. Moore

2017 National Science Foundation (NSF) Career Award — The CAREER award is the most competitive and prestigious awards given by the NSF to junior faculty. 

Emeritus Professor Michael O’Keefe

2019 Gregori Aminoff Prize in Crystallography — The Gregori Aminoff Prize is awarded by the Royal Swedish Academy of Sciences. O’Keefe was selected for his fundamental contributions to the development of reticular chemistry.

Associate Professor Steve Presse

2017 National Science Foundation Career Award — The CAREER award is the most competitive and prestigious awards given by the NSF to junior faculty.

Professor Everett Shock

2019 ACS Geochemistry Division Medal — The American Chemical Society Geochemistry Medal is awarded for outstanding accomplishment in geochemistry.

Assistant Professor Nicholas Stephanopoulos

2018 National Science Foundation Career Award — The CAREER award is the most competitive and prestigious awards given by the NSF to junior faculty.

2018 NIH New Innovator Award — The award from the National Institutes of Health supports exceptionally creative early-career investigators who propose innovative, high-impact projects.

2016 Air Force Young Investigator Award — The Young Investigator Award supports scientists showing exceptional ability and promise for conducting basic research.

Associate Professor Ryan Trovitch

2017 National Science Foundation Career Award — The most competitive and prestigious awards given by the NSF to junior faculty.

Milton D. Glick Distinguished Professor Hao Yan

2019 Fast Company’s Most Creative People in Business 2019 — Awarded to visionary leaders who have moved an industry forward in an unprecedented way. Yan received the award for his work using nanobots to fight cancerous tumors by choking off their blood supply.

Communication specialist, School of Molecular Sciences

13 ASU students earn prestigious NAE Grand Challenge Scholar title

May 15, 2019

Engineers solve some of the world’s biggest problems, but they need more than technical skills to create meaningful solutions.

Ambitious students in the Ira A. Fulton Schools of Engineering at Arizona State University take on more than their engineering degree requirements when they participate in the Grand Challenge Scholars Program. Through GCSP, they become transdisciplinary, collaborative and global problem-solvers. A group of students poses on the steps to the University Club building. Thirteen students from the Ira A. Fulton Schools of Engineering graduated as National Academy of Engineering Grand Challenge Scholars, having completed coursework and experiential opportunities in service learning, multicultural awareness, entrepreneurship, developing an interdisciplinary perspective and conducting research or a creative project related to one of 14 Grand Challenges designated by the NAE. Pictured from top left to bottom right: Philip Mulford, Stephen Lane, Randee Huffman, Ekta Patel, Cole Brauer, Andrea Kraetz, Eduardo Luciano Huapaya, Jobana Westbay, Diana Chen, Sheena Benson and Bhavna Ramesh. Not pictured: Tyrine Jamella Pangan and Ryan McBurney. Photo by Erika Gronek/ASU Download Full Image

Endorsed by the National Academy of Engineering, the program tasks students with choosing one of the NAE's 14 Grand Challenges facing society over the next century that span the broader themes of sustainability, health, security and joy of living.

Students accepted into the program must complete coursework and experiential opportunities for five components of the program: service learning, multicultural awareness, entrepreneurship, developing an interdisciplinary perspective and conducting research or a creative project related to their Grand Challenge theme.

During the 2018-19 academic year, 13 Fulton Schools students were added to the official NAE Grand Challenge Scholars Registry as they completed the program requirements and graduated with their bachelor’s degrees. This is the second-largest graduating class of Grand Challenge Scholars from ASU after the graduating class of spring 2017. They join 43 others who have completed the program since its inception at ASU in 2011.

“Through their own individual set of experiences, each of these students has explored different cultures, applied their technical skills to research or creative projects, developed an entrepreneurial mindset, learned to view problems from an interdisciplinary perspective and has already made an impact on local and global communities through service learning projects,” said Amy Trowbridge, director of the ASU Grand Challenge Scholars Program and a senior lecturer in the Fulton Schools. “These students are dedicated to creating value for communities in the world, and I can’t wait to see the positive impact they have in the future.”

The program often attracts often Fulton Schools’ most high-achieving students who take part in ambitious programs that offer well-rounded experiences. A majority of the program's students are in Barrett, The Honors College, others are Entrepreneurship and Innovation Fellows and many take on minors in other subjects in addition to their engineering studies. The program also opens up opportunities for students that are often in the realm of graduate studies. This year, at least two students co-authored research journal articles, four or more presented their work at national conferences and a few even started their own businesses.

The Grand Challenge Scholars Program encourages many students to think outside their majors as well as explore new ways their skills can be applied to developing solutions to the Grand Challenges.

Recent aerospace engineering graduate Ryan McBurney explored how to increase the efficiency of solar energy conversion for the research part of his program requirements.

“It’s a little strange that an aerospace engineering major decided to do this kind of work instead of fluid mechanics of structural stuff,” McBurney said. “But I like to change it up and learn different things.”

McBurney initially sought to complete the Grand Challenge Scholars Program requirements on the Grand Challenge theme of security to prepare for a future career in national defense. But after reaching out to Liping Wang, an associate professor of aerospace and mechanical engineering, he became involved in an energy and heat transfer project as part of the Fulton Undergraduate Research Initiative.

After graduation, McBurney is starting his career with the Naval Air System Command, a department of the U.S. Navy, as an aerospace engineer in the aeromechanics and thermal analysis branch.

“I get to be in a field that my undergraduate major covered and also relates to all the things I’ve been doing outside the classroom in thermal analysis and heat transfer,” he said. “By participating in GCSP, I got involved with extracurricular programs and classes outside of the typically structured aerospace engineering academic program. I also took classes in national security and defense and a lot of other related courses which looked nice on my transcripts when applying to Department of Defense jobs.”

A student poses in front of a research poster.

Aerospace engineering student Ryan McBurney presents research at the spring 2019 Fulton Undergraduate Research Initiative symposium exploring the use of metal films to increase the efficiency of solar energy conversion beyond the current limits of commercial solar panels. As an aerospace engineering major, McBurney’s research was a cross-disciplinary application of his skills. Photo by Erika Gronek/ASU

The impact Grand Challenge Scholars Program students make extends well beyond U.S. borders, especially because developing innovators and leaders for the global economy is a central goal of the program's multicultural awareness component.

Through the program, McBurney got involved with Engineering Projects In Community Service, or EPICS, for his service learning requirement. He applied his energy focus to create a solar-powered refrigerator for a professor at an agricultural university in Nigeria. The refrigerator, which stores enzymes for biofuel research, was delivered to Nigeria as McBurney wrapped up his undergraduate studies in April.

“More than half of these students worked to develop solutions to fulfill the needs of local or global communities through our EPICS program for a combined total of 16 semesters,” Trowbridge said. “And that doesn’t include the time that this group has impacted the community in other ways through developing educational activities and events, providing mentorship and leading tours and school visits, to inspire future generations of engineers.”

Andrea Kraetz, a recent honors student and chemical engineering graduate who completed her degree and Grand Challenge Scholars Program requirements in three years, took on the Grand Challenge of clean water access. She developed a selective adsorbent templating process to remove harmful selenium from water, thereby providing cleaner water and combating water scarcity by making clean water more accessible.

“We can see there is a 95% removal of selenium with the templating process versus the nontemplated material that absorbs around 40% of the selenium,” Kraetz explained. “It’s all about clean water and healthier water.”

Beyond applying her chemical engineering skills to solving a Grand Challenge, she appreciated the broader education the program provides to students.

“For engineering majors, it is usually just about the STEM subjects, like thermodynamics or math,” Kraetz said. “But with GCSP they try to bring in other elements, like social factors, with courses that can help provide a broader purpose to engineering projects.”

Kraetz will go on to pursue a doctoral degree in chemical engineering at Johns Hopkins University as a National Science Foundation Graduate Research Fellow, taking on new challenges in sustainable energy research.

A student stands in front of a research poster.

At the spring 2019 FURI symposium, chemical engineering student Andrea Kraetz presents sustainability research into selective adsorbents to remove selenium from water to make water treatment more efficient. Her research was sponsored by W. L. Gore & Associates. Photo by Marco-Alexis Chaira/ASU

Though the program adds extra work on top of an already packed engineering curriculum, students view it as an experience that helps them to stand out.

“GCSP has given me a lot of opportunities that I never would have imagined having otherwise because the different components really forced me or encouraged me to expand my horizons,” said Bhavna Ramesh, a biomedical engineering graduate and honors student who tackled two health-related Grand Challenges: advancing health informatics and engineering better medicines.

Ramesh studied abroad in Australia and Fiji for three weeks during her sophomore year to explore global health and sustainability as her multicultural component. She is one of five members of the 2018-19 Grand Challenge Scholars Program class who studied abroad. Between them, they studied in nine different countries. For the service learning requirement, Ramesh mentored younger engineering students as part of Engineering Futures.

The program also encouraged her to get involved in entrepreneurship through an internship as a market researcher at a wearable sensor technology startup.

Ramesh is also looking into commercialization aspects for her Grand Challenge Scholars Program research project, which she presented as part of the FURI symposium in spring 2019. She collaborated with a team to develop a pressure ulcer risk assessment device for patients confined to hospital beds. When areas of a patient’s body that don’t have much fat between bone and skin make contact with the hospital bed, the skin can break and cause pressure ulcers, which are painful and can often cause irreversible damage.

Ramesh and her team are working with their clinical mentors at Phoenix Children’s Hospital to obtain a patent on their device.

In completing the project, which also served as her biomedical engineering capstone project, Ramesh stepped well outside the biomedical engineering curriculum to take on an interdisciplinary research approach that involved studying and using machine learning techniques to develop an algorithm to classify individual patients as likely or unlikely to develop pressure ulcers.

Together, the five program requirements made for a rewarding challenge.

“GCSP has definitely made me into a more well-rounded scholar,” Ramesh said. “I have a lot of diverse experiences, I’m more aware of cultural differences whether it is in the health industry or just generally, and I think that will translate really well into being mindful of my research and what other people are pursuing.”

This experience will come in handy as Ramesh begins studies for a biomedical engineering master’s degree at the University of California, Los Angeles in the fall. She hopes to one day pursue a research career in the mental health care field.

Two students work together on a project.

Biomedical engineering students Bhavna Ramesh (left) and Ekta Patel (right) work on their Grand Challenge Scholars Program research component. They worked as part of a team to create a device to assess the risk of developing pressure ulcers for patients in hospital beds. Photo by Marco-Alexis Chaira/ASU 

Ekta Patel, a fellow recent biomedical engineering graduate and honors student, partnered with Ramesh on the pressure ulcer device project. She took on the triple challenge of pursuing an engineering degree, participating in the Grand Challenge Scholars Program and taking on the pre-medical student track, each of which present their own program requirements, challenges and demands on her time.

Patel says pre-med students can be hesitant about also choosing an engineering major, but she was determined to do both. The program provided her a framework to complete each set of requirements — and get additional valuable opportunities.

“GCSP kept me grounded in engineering, and I was also able to do all my pre-med stuff,” Patel said. “All the experiences I had doing research and entrepreneurship just made me a better student overall. I have a lot more skills added on, and I think I’m better prepared to ultimately apply to medical school.”

The opportunities students are able to take advantage of because of the program requirements can make the challenges of such a strenuous program into an unforgettable journey.

“GCSP has been so awesome,” Patel said. “I’ve loved every second.”

Monique Clement

Communications specialist, Ira A. Fulton Schools of Engineering


Using DNA templates to harness the sun’s energy

April 22, 2019

As the world struggles to meet the increasing demand for energy, coupled with the rising levels of CO2 in the atmosphere from deforestation and the use of fossil fuels, photosynthesis in nature simply cannot keep up with the carbon cycle. But what if we could help the natural carbon cycle by learning from photosynthesis to generate our own sources of energy that didn't generate CO2? Artificial photosynthesis does just that, harnessing the sun's energy to generate fuel in ways that minimize CO2 production.

In a recent paper published in the Journal of the American Chemical Society, a team of researchers led by Hao Yan, Yan Liu and Neal Woodbury of the School of Molecular Sciences and Biodesign Center for Molecular Design and Biomimetics at Arizona State University report significant progress in optimizing systems that mimic the first stage of photosynthesis, capturing and harnessing light energy from the sun. Double-stranded DNA acts as a template for self-assembly of cyanine dyes that serve as "exciton wires" for directional energy transport. Double-stranded DNA as a template to guide self-assembly of cyanine dye forming strongly-coupled dye aggregates. These DNA-templated dye aggregates serve as “exciton wires” to facilitate directional, efficient energy transfer over distances up to 32 nm. Download Full Image

Recalling what we learned in biology class, the first step in photosynthesis in a plant leaf is capture of light energy by chlorophyll molecules. The next step is efficiently transferring that light energy to the part of the photosynthetic reaction center where the light-powered chemistry takes place. This process, called energy transfer, occurs efficiently in natural photosynthesis in the antenna complex. Like the antenna of a radio or a television, the job of the photosynthetic antenna complex is to gather the absorbed light energy and funnel it to the right place. How can we build our own “energy transfer antenna complexes”, i.e., artificial structures that absorb light energy and transfer it over distance to where it can be used?  

“Photosynthesis has mastered the art of collecting light energy and moving it over substantial distances to the right place for light-driven chemistry to take place," Woodbury said. "The problem with the natural complexes is that they are hard to reproduce from a design perspective; we can use them as they are, but we want to create systems that serve our own purposes. By using some of the same tricks as nature, but in the context of a DNA structure that we can design precisely, we overcome this limitation, and enable the creation of light harvesting systems that efficiently transfer the energy of light where we want it.”

Yan’s lab has developed a way to use DNA to self-assemble structures that can serve as templates for assembling molecular complexes with almost unlimited control over size, shape and function. Using DNA architectures as a template, the researchers were able to aggregate dye molecules in structures that captured and transferred energy over tens of nanometers with an efficiency loss of less than 1% per nanometer. In this way the dye aggregates mimic the function of the chlorophyll-based antenna complex in natural photosynthesis by efficiently transferring light energy over long distances from the place where it is absorbed to the place where it will be used.

To further study biomimetic light harvesting complexes based on self-assembled dye-DNA nanostructures, Yan, Woodbury and Lin have received a grant from the Department of Energy. In previous work funded by the department, Yan and his team demonstrated the utility of DNA to serve as a programmable template for aggregating dyes. To build upon these findings, they will use the photonic principles that underlie natural light harvesting complexes to construct programmable structures based on DNA self-assembly, which provides the flexible platform necessary for the design and development of complex molecular photonic systems.

“It is great to see DNA can be programmed as a scaffolding template to mimic nature’s light harvesting antennae to transfer energy over this long distance,” Yan said. “This is a great demonstration of research outcome from a highly interdisciplinary team.”

The potential outcomes of this research could reveal new ways of capturing energy and transferring it over longer distances without net loss. In turn, the impact from this research could lead the way to designing more efficient energy conversion systems that will reduce our dependency on fossil fuels.

“I was delighted to participate in this research and to be able to build on some long-term work extended back to some very fruitful collaborations with scientists and engineers at Eastman Kodak and the University of Rochester,” said David G. Whitten of the University of New Mexico, Department of Chemical and Biological Engineering. “This research included using their cyanines to form aggregated assemblies where long range energy transfer between a donor cyanine aggregate and an acceptor occurs.”

The work reported in the Journal of the American Chemical Society was performed by ASU students Xu Zhou and Sarthak Mandal, now of the National Institute of Technology in Tiruchirappalli, India, and Su Lin of the Center for Innovations in Medicine at the Biodesign Institute, and Whitten’s student Jianzhong Yang in collaboration along with Yan and Woodbury.

The Department of Energy's Office of Science is the largest supporter of basic research in the physical sciences in the United States, and is working to address some of the most pressing challenges of our time. 

Communication specialist, School of Molecular Sciences

Solar advances earn ASU researcher IEEE young professional award

April 11, 2019

Zachary Holman’s research spanning the full spectrum of solar cell technologies has made him shine as a leader in the photovoltaics community.

The assistant professor of electrical engineering in the Ira A. Fulton Schools of Engineering at Arizona State University recently was recognized with the 2019 IEEE Stuart R. Wenham Young Professional Award for significant contributions to photovoltaic energy conversion science and technology. This award is given annually by the photovoltaic section of the Institute of Electrical and Electronics Engineers. Zachary Holman Zachary Holman. Download Full Image

Holman is the sixth recipient of the IEEE Stuart R. Wenham Young Professional Award and the first ASU researcher to receive the honor. The Young Professional Award was recently renamed in honor of the late Stuart Wenham, a photovoltaics research leader who made profound contributions to the field.

Holman follows in Wenham’s footsteps with a bright early career. His notable achievements include making new scientific developments and advancing performance to record efficiencies in solar cells based on silicon, cadmium telluride, perovskites and III-V materials.

His most significant contributions have been to silicon-based tandem solar cells. These types of cells stack a complementary semiconductor material on top of silicon for efficient conversion of broad-spectrum light from the sun into electricity.

“My team has mapped out the technological and economic landscapes for these types of solar cells in publications that have served as guides to the community,” Holman said.

He has also invented a new type of four-terminal tandem solar module that uses a “PVMirror” to avoid materials compatibility challenges of typical tandem solar cell structures.

For cadmium telluride solar cells, Holman collaborated with ASU Professor Yong-Hang Zhang to develop a new hole contact that broke the open-circuit voltage record by more than 100 millivolts.

Myles Steiner, Photovoltaic Specialists Conference awards chair, echoes the praise of Holman’s contributions in these areas and notes Holman’s colleagues also believe his achievements are significant and impressive.

“Dr. Holman was nominated for this year’s award by two independent sets of colleagues, which really speaks to his breadth of experience and to the impact that he has already had in the PV community,” Steiner said.

Holman’s work on new materials, processes and solar cell designs have earned many honors in his young career. In the past several years, he has been named a Moore Inventor Fellow, Trustees of ASU Professor, Fulton Entrepreneurial Professor and Joseph C. Palais Distinguished Faculty Scholar.

He has also commercialized his research, co-founding the advanced materials startup Swift Coat with a new thin-film and thick-film deposition technique called aerosol impaction-driven assembly.

Holman credits his achievements in the field of photovoltaics to his ASU team, the research facilities and community at ASU, steady financial support from the U.S. Department of Energy and National Science Foundation and high-caliber collaborators from around the world.

“Excellent partners with complementary expertise allow us to dramatically increase the scope of our research and the impact of its results,” Holman said, noting 38 out of his 40 funded projects in the last few years have been collaborative.

The IEEE Young Professional Award, which will be presented at the 46th IEEE Photovoltaic Specialists Conference in June, includes $2,000 as well as a 30-minute honorary talk at the conference. Holman will discuss his research group’s work on tandem solar cells over the past three years, the future of the solar energy industry and pressing research questions and promising approaches the community should consider.

“This award represents my own research community’s validation of my team’s contributions,” Holman said. “And that makes me grateful and proud.”

Monique Clement

Communications specialist, Ira A. Fulton Schools of Engineering


Harnessing the power of solar to enhance the electric grid

April 4, 2019

Arizona State University researchers are set to receive a $3.6 million award from the U.S. Department of Energy Solar Energy Technologies Office to advance solar energy’s role in strengthening reliability and resiliency of the nation’s electricity grid.

The research project, which is funded by the Advanced Systems Integration for Solar Technologies (ASSIST) program, will focus on building enhanced grid models and control technologies for increasing the amount of renewable power operating in the distribution system. solar panels below electrical power lines Photo courtesy of Shutterstock Download Full Image

“The present distribution grid has not been designed to handle very high levels of solar energy,” said Raja Ayyanar, who is the lead principal investigator on the project and a professor of electrical engineering in ASU’s Ira A. Fulton Schools of Engineering. “As solar is a clean and increasingly cost-effective energy resource, photovoltaic inverters have great potential to enhance grid resilience and performance while ensuring reliable power to critical infrastructures.”

Ayyanar’s team at the university consists of Ira A. Fulton Chair Professor Vijay Vittal, Assistant Professor Qin Lei and Assistant Professor Yang Weng, who are all faculty members in the School of Electrical, Computer and Energy Engineering, one of the six Fulton Schools. Collaborators from Iowa State University, the Arizona Public Service Company, the National Renewable Energy Laboratory, Hitachi America Ltd. and Poundra, a local company working actively in the area of solar integration, round out the research team.

“The efforts of our faculty in electric power and energy to assemble a collaboration among academic, industry and government to address grid reliability is impressive,” said Stephen Phillips, professor and director of the School of Electrical, Computer and Energy Engineering. “An electric power grid that can incorporate increasing amounts of solar energy with high reliability is critical for national security, economic efficiency and reducing carbon emissions.”

Since the distribution grid has a difficult time managing high levels of solar energy, it can result in reverse power flow conditions, overvoltages and decreased power quality and reliability. Ayyanar says grid operators have little to no situational awareness about these issues.

Further, solar inverters — which convert solar energy to a form that can be used by electrical grids — are not coordinated and do not utilize robust cybersecurity measures, making the nation’s electricity grid potentially vulnerable to system instability and cyberattacks.

The research team will produce multiple technologies, including an end-to-end solar energy optimization platform, that enable large-scale integration of distributed solar energy resources in the delivery of electric power while simultaneously enhancing grid reliability, resiliency and power quality. The technologies will combine advanced power system models, data analytics, inverter control and complete situational awareness for grid operators through cybersecure two-way communications.

“We propose deep learning methods, which in conjunction with new, integrated transmission and distribution models will determine the absolute maximum possible solar that can be integrated at a particular point in the grid,” Ayyanar said. “Our proposed technology on an end-to-end solar energy optimization platform will enhance grid situational awareness and provide a stage for coordinated control and data-driven decision-making by grid operators.”

The team’s approach relies on a vast network of intelligent edge devices and local control supported by data analytics from the end-to-end solar energy optimization platform. The intelligent edge reduces network bandwidth and enables fully coordinated control of distributed energy resources even at extreme solar penetration levels, also known as the percentage of total load powered by solar.

Additionally, the team will develop systematic models and designs of data security rules and secure access controls to enable cybersecure interoperability across all distributed solar, storage, edge intelligent devices and communication networks.

ASU’s proposal was selected as part of an effort by the U.S. Department of Energy Solar Energy Technologies Office to invest in new projects that enable grid operators to rapidly detect physical and cyber-based abnormalities in the power system and utilize solar generation to recover quickly from power outages.

“I have no higher priority than to support the security of the country’s critical energy infrastructure,” U.S. Secretary of Energy Rick Perry said in a press release. “These projects will work to give solar technologies greater resiliency as they are integrated into our electric grid. A reliable electricity grid is essential to our national and economic security and the everyday lives of American people.”

Ayyanar’s project is among the first 10 projects selected nationwide through ASSIST to develop grid management tools and models that show how solar situational awareness will enhance power system resilience, especially at critical infrastructure sites.

“Successful completion of the research will produce technologies that enable very-large scale integration of distributed solar, which is not possible with state-of-the-art technologies, and help drive the continued growth of the solar industry,” Ayyanar said. “It can help utilities meet the ambitious renewable energy mandates set by several states. It can streamline the planning, approval and commissioning of distributed solar PV significantly reducing the interconnection costs.”

About the Solar Energy Technologies Office

The U.S. Department of Energy Solar Energy Technologies Office supports early-stage research and development to improve the affordability, reliability, and performance of solar technologies on the grid. Learn more at energy.gov/solar-office.

Amanda Stoneman

Science Writer, Ira A. Fulton Schools of Engineering


Authors, artists explore solar futures in new anthology

March 22, 2019

Solar and other renewable forms of energy are quickly gaining momentum — in many places, building entirely new renewable energy projects is cheaper than running existing fossil-fuel plants, and last year, the mayors of more than 200 U.S. cities signed an open letter supporting a solar-powered future.

The advent of the Green New Deal and other ambitious policy ideas in the U.S. and worldwide suggest that we may be moving into an era of rapid energy transition. And just in time: This transition is urgent, with dangerous tipping points for atmospheric carbon and global temperature increases looming in the very near future.  An iconic image of the sun, made up of semicircular arcs of different colors: yellows, oranges, and reds. Download Full Image

In the face of this colossal transition, we need to be thinking beyond if and when we’ll move to an energy system dominated by solar, wind and other renewable sources. We need to think carefully about how to design the energy transition, focusing on a number of questions: Where will energy infrastructure be built — in urban centers or sparsely populated rural areas? How centralized or dispersed will it be — in huge power plants or on numerous rooftops? Who will own solar panels (and other generators) and benefit financially? Could this infrastructure be beautiful, or is it doomed to be an eyesore?

To answer these questions, and begin to imagine the difficulties, joys and adventures of human life these in solar futures, last week Arizona State University published “The Weight of Light,” a free digital book featuring science fiction stories, essays and art exploring a variety of possible solar futures. 

The book features four original science fiction stories — three of which take place in possible future versions of Arizona, with a fourth unfolding in a revitalized and transformed Detroit — each illustrated by an artist from the Phoenix community. The stories are accompanied by essays written by ASU faculty and graduate students in a wide range of fields, from electrical and systems engineering to public policy and futures studies.

The stories imagine energy systems embedded with human systems, relationships, hopes and challenges: an extended power outage in a scalding Phoenix summer, sabotage at a solar plant, mother-daughter strife and fractious local politics in a solar-powered city and a budding romance between young people from two very different solar-powered desert communities. 

“The Weight of Light” was published by the Center for Science and the Imagination, in collaboration with the Quantum Energy and Sustainable Solar Technologies Research Center and the School for the Future of Innovation in Society. 

In the book’s introduction, editors Clark A. Miller and Joey Eschrich write, “Our goal is not to predict the future but to open it up as a design space. Our hope is that these stories, essays and artwork will stimulate and expand our imagination about what kinds of choices are possible in designing the future of solar-powered societies, and why those choices matter.”

"The Weight of Light" is designed to situate issues of equality, justice, political struggle, democratic process and urban form into the conversation about energy policy — along with a host of other considerations that don’t immediately spring to mind when we think about energy. 

“The Weight of Light” is free to download, read and share in several digital formats at the Center for Science and the Imagination website. 

Joey Eschrich

program manager, Center for Science and the Imagination


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ASU students developing off-grid tech to help small farms build resilience to climate change

March 18, 2019

With a growing global population, farmers are working hard to feed the world. Throw climate change into the mix and maintaining a thriving, high-yield farm becomes even harder.

Facing these challenges, it’s important for farmers to monitor soil for conditions such as temperature and moisture level in order to keep crops healthy. Agricultural sensors make it easy for farmers to take these measurements, but the sensors are usually attainable only for industrial farms that can afford the technology and can access electricity and a network connection. Rural small farms don’t always have these luxuries, said Bruce Baikie, a senior sustainability fellow in the Julie Ann Wrigley Global Institute of Sustainability at Arizona State University.

But the world can’t afford for small farms to fail. Family-run farms produce more than 80 percent of the world’s food, according to a 2014 report by the Food and Agriculture Organization. These farmers need a low-infrastructure, affordable way to keep up with changing conditions in their soils.

That’s where SolarSENSE, an ASU student capstone project sponsored by Baikie, comes in. SolarSENSE makes use of technology from SolarSPELL, Solar-Powered Educational Learning Libraries developed by Senior Sustainability Scientist Laura Hosman, to allow off-grid rural farms access to soil data from sensors without the need for electricity or costly internet connections.

The project, which started in September 2018 and currently involves five computer science seniors, is in its beginning stages. In early March, four of the students along with Baikie and HosmanHosman is also an associate professor in the School for the Future of Innovation in Society and the Polytechnic School, part of the Ira A. Fulton Schools of Engineering. traveled to Hawaii to test their innovative system on a remote farm — MA'O Organic Farms on the western side of Oahu (a connection arranged by Amanda Ellis, executive director of Hawaii and Asia Pacific in the ASU Wrigley Institute). Throughout their three-day proof-of-concept trip, the team also worked with the farmers to find out how SolarSENSE can take the data and present it in a way that is most useful.

In Hawaii, the team found that the technology worked, but they learned a lot about the product’s in-the-field application by interacting with the farmers.

“When we got into the field, we had to throw out the window a lot of preconceived notions we had and listen to the farmers,” Baikie said. “It helped point us in a new direction.”

Flame Porter, farm apprentice at MA'O Organic Farms, had positive feedback for SolarSENSE: "If we didn't care about our soil, we wouldn't be at this capacity. To be able to put (a sensor) in the soil and get results within that same day — it's revolutionary. It's going to help a lot of people.”

Ultimately, the goal of SolarSENSE is to not only improve accessibility to agricultural sensors for smaller farms, but also to connect the farmers to an agricultural library of recommended actions they could take based on the readings. The SolarSENSE digital agricultural library has both actional videos for farmers and a wealth of plant, soil and climate change information. The library is also accessed directly off the SolarSPELL unit — no internet connection required.

Kevin Hale, an ASU senior in software engineering who is part of the capstone team, said that they want the farmers to be able to “learn and share that knowledge with their community, so everyone can benefit.”

On a personal level, working with SolarSENSE has gone far beyond technology for Hale, who said that he learned a lot about sustainability and community through the Hawaiian farmers. One concept in particular that stuck with him was ahupua'a, the ancient Hawaiian system of land division to form self-sustaining ecosystems.

“The idea was that everyone helped each other get the resources that they need and that everyone supported each other locally,” Hale said. “I really enjoyed my time on the farm and seeing how the farmers too incorporated this mentality into their work. (I learned) that I need to not only worry about myself, but also look for ways that I can help sustain others in my community. Having these experiences … made me realize that I can have more impact on the world than I previously thought.”

The other ASU students involved in SolarSENSE for the fall 2018 and spring 2019 semesters are Tresor Cyubahiro, Wesley Davis, James Ortner and Scott Watkins. While in Hawaii, the team met with University of Hawaii President David Lassner to identify opportunities for collaboration between the two universities, and Hosman presented early findings about SolarSENSE testing at MA'O Organic Farms at a Sustainability Leaders Series event jointly sponsored by the ASU Wrigley Institute and the East-West Center.

Julie Ann Wrigley noted: “This is exactly the kind of practical impact I am proud our ASU Wrigley Institute sustainability scientists are able to make in the field. I am thrilled to see the wonderful work of SolarSPELL expanding and the meaningful connections with local indigenous Hawaiian enterprise MA’O as a follow on from our ASU Wrigley Institute board meeting held in Hawaii last November.”

Video produced by ASU computer science senior Scott Watkins

Top photo: (From left) ASU computer science seniors James Ortner, Scott Watkins, Tresor Cyubahiro and Kevin Hale; and Bruce Baikie, senior sustainability fellow and adjunct faculty in the School for the Future of Innovation in Society. Photo courtesy of Bruce Baikie

Kayla Frost

Associate Editor , Julie Ann Wrigley Global Institute of Sustainability


Six-author team awarded ASU Morrison Prize for analysis of climate change’s impact on a critical conservation tool

February 13, 2019

Land conservation may seem like a simple enough formula: Set aside land, then protect it.

But climate change is complicating land conservation practices because of how it alters land over time. Among other things, climate change is raising new questions about perpetual conservation easements — a critical land preservation tool relied upon by government agencies and nonprofit land trusts. A six-author team that conducted an unprecedented analysis of the structuring of conservation easements in the face of rapid climate change has been awarded the 2019 Morrison Prize, an honor established in 2015 and administered through the program on Law and Sustainability at the Sandra Day O’Connor College of Law at Arizona State University. Download Full Image

The ASU Morrison Prize contest awards a $10,000 prize annually to the authors of the most impactful sustainability-related legal academic article published in North America during the previous year. The prize is named after its benefactor, Richard N. Morrison, who is also a co-founder of the Morrison Institute for Public Policy at ASU.

“We were delighted and honored to learn that our interdisciplinary research was awarded this year’s Morrison Prize,” said co-author Jessica Owley, director of the environmental law program at University at Buffalo – State University of New York. “Our project brings together several fields to not just examine the problems that plague sustainability but also to propose concrete ways to improve the world around us through better approaches to land conservation.”

Jessica Owley

The article, titled “Climate change challenges for land conservation: Rethinking conservation easements, strategies, and tools,” was co-written by:

• Federico Cheever, a professor at the University of Denver Sturm College of Law who died during the final stages of the project, and to whom the article is dedicated.

• Adena R. Rissman, an associate professor at the University of Wisconsin-Madison Department of Forest and Wildlife Ecology.

• M. Rebecca Shaw, chief scientist for the World Wide Fund for Nature.

• Barton H. Thompson Jr., a professor of natural resources law at Stanford Law School.

• W. William Weeks, director of the Conservation Law Clinic at Indiana University’s Maurer School of Law.

Frederico Cheever

Federico Cheever

Under a conservation easement, a landowner voluntarily enters into an agreement with a land trust or government agency to limit use of the land in order to further conservation efforts. The restrictions in the easement typically prohibit real estate development and subdivisions, which reduces the land’s value, and the landowner usually gets significant tax benefits in return.

But climate change presents a number of challenges to the use of conservation easements, which tend to focus on the present-day status of land and to inadequately account for potentially dramatic changes in land over time. For example, throughout the world, coastal land — some protected by conservation easements — is being swallowed by rising sea levels. Current habitats on some conserved land may not be able to continue supporting native species. Droughts, floods and wildfires may become more frequent and extreme. Invasive species could spread. And agricultural land may not hold long-term viability.

Adena R. Morrison

Adena R. Rissman

The prize’s winning authors analyzed more than 360 conservation easements and interviewed more than 70 land conservation professionals, finding that over-reliance on perpetual versions of these easements could ultimately limit the effectiveness of long-term conservation efforts. Their article urges conservation organizations to take climate change into consideration when structuring conservation easements, identifying the risks it poses to their goals and properties, and prioritizing accordingly. It further advises conservation groups to build partnerships, choose more-effective tools, write flexible and sustainable conservation easements, and conduct long-term stewardship of their land.

In connection with their project, the authors held sessions with conservation funders, met with government officials, presented their work at annual meetings of land trust officials, and were contacted by practitioners, researchers and activists seeking collaboration to expand conservation efforts.

“I think the innovations of our research came from our diverse strengths in law, ecology and social science, and our commitment to conservation in practice,” Rissman said.

M. Rebecca Shaw

About the Morrison Prize

Professor Troy Rule is the faculty director of the Law and Sustainability program at ASU Law. He says this year’s prize-winning paper exemplifies the type of valuable work that the program and prize seek to encourage in law schools across the United States.  “As in past years, this year’s winning paper was one that meaningfully advanced our understanding of how to better structure laws and policies to support and drive sustainability.”

Each year, law professors from throughout the world who have recently published articles in North American legal academic journals are eligible to enter the Morrison Prize contest. All entries undergo independent review and scoring by a diverse group of full-time law professors who teach in environmental sustainability-related areas at various North American law schools. The scores from these judges are aggregated to determine the prize winner.

Barton H. Thompson

Barton H. Thompson Jr.

“We are particularly honored to receive ASU’s prize because it recognizes the importance of sustainability in finding a way to make conservation work in the face of climate change,” Thompson said. “Private conservation of our natural world has long been of importance to sustainability, and this paper looks for ways to ensure its effectiveness in the face of climate change and evolving landscapes.”

The authors will accept the 2019 Prize on May 10 at ASU Law’s Beus Center for Law and Society, when they give a presentation at the fifth annual Sustainability Conference of American Legal Educators.

“ASU’s reputation in environmental law and sustainability gives this award additional esteem and illustrates why the Morrison Prize has become the sought-after prize in our field.” Owley said. “This prize is also a testament to the legacy of our dear colleague and co-author, Fred Cheever.”

W. William Weeks

W. William Weeks.

Past winners

In 2018, Minnesota Law School professor Hari M. Osofsky and Jacqueline Peel, associate dean of the University of Melbourne Law School in Australia, won the Morrison Prize for their academic article “Energy Partisanship.” They outlined the critical importance of circumventing fierce political divisions in order to combat climate change, and provided guidance for doing so.

In 2017, Vanderbilt University professors Michael P. Vandenbergh and Jonathan Gilligan’s won the prize for "Beyond Gridlock." The article underscored the difficulties of effecting change through government and highlighted the underutilized potential to reduce greenhouse-gas emissions through the private sector.

In 2016, Dave Owen, a professor at University of California, Hastings College of Law, and Colin Aspe, a freshwater conservation adviser at the Nature Conservancy, were the inaugural winners of the Morrison Prize. Their article, “Trading Dams,” described creative new policy approaches for better balancing hydroelectric energy generation and environmental protection on the nation’s river system.

Lauren Dickerson

Marketing and communications coordinator, Sandra Day O’Connor College of Law


Smarter together: ASU Law student helping unite metro Phoenix as region of innovation

February 1, 2019

Imagine a perfect day in metro Phoenix: no traffic congestion and autonomous vehicles glide commuters through the streets, hitting nothing but green lights. The air is clean, there’s a sustainable supply of water, and everybody has access to great health care, nutritious food and the latest technologies. Sun Devil Stadium is packed with a roaring crowd, and the fans move efficiently through short lines at the concession stands and restrooms.

That picture may seem far-fetched in a region where rapid population growth seems to be stressing resources and infrastructure. But it’s all part of the vision of Dominic Papa, a third-year student at the Sandra Day O’Connor College of Law at Arizona State University. Smart Cities Smart Cities Download Full Image

Papa is the co-founder and executive director of the Institute for Digital Progress, a nonprofit aiming to improve the Phoenix area by transforming the region into a major hub of smart-city technology. It’s an ambitious project that relies heavily on innovation — and collaboration.

But first and foremost, what exactly is a “smart city”?

“The running joke is, you ask 10 mayors what a smart city is, you’re going to get 12 answers, because no one knows, and they’re going to change their answer after hearing everybody else’s,” Papa said. “But I would say, from a community’s perspective, it is leveraging emerging technology and data to provide more efficient, more effective services and a higher quality of life.”

A key component is what Papa calls “innovation sandboxes,” where research and pilot programs are encouraged. For an example, he points to the testing of autonomous vehicles.

“We saw what Governor Doug Ducey did by opening up Arizona, and our streets, to autonomous vehicles, and the massive economic impact that that brought to our state,” Papa said. “It’s really taking that concept and drilling down to a micro-level. So how can we open our region or ASU, our campuses, to allow for industry, entrepreneurs and even researchers to leverage our infrastructure as a proving ground to build, test and validate emerging technologies?”

Collaboration is one of the key elements, and the institute has been working in partnership with ASU, the Greater Phoenix Economic Council, the Maricopa Association of Governments, and cities and towns making up the Greater Phoenix region in order to create a Greater Phoenix Smart Region.

“It’s 22 cities and towns, the county, ASU and industry partners coming together to intentionally accelerate our development into a smart region,” said Papa, explaining that workforce development will be a key element. “A smart region is going to demand a public-sector workforce that is educated to develop, deploy and maintain these technologies within the cities themselves. Together, ASU and IDPInstitute for Digital Progress will train city employees on emerging technologies and digitization strategies. The goal is to create the nation’s leading public-sector workforce of the future, right here in Greater Phoenix.”

ASU at the center of it all

ASU will serve as the heartbeat of the smart-region project, playing a critical role not only in educating the future workforce, but as a research hub as well. And helping to lead those efforts is Di Bowman, a professor at ASU Law and the School for the Future of Innovation in Society, who also serves as the co-director for ASU’s Center for Smart Cities and Regions.

“ASU already has the concept of a smart campus and has been working across the different facets of the campuses to create the smart-campus environment,” Bowman said.

For example, Sun Devil Stadium is not only hosting football games, but also doubling as a research laboratory.

“One thing they’re doing there, which may seem to be more about entertainment than technology testing, is using facial-recognition software within the suites area,” Bowman said. “Guests have their faces scanned and are then matched with their celebrity doppelganger, which isn’t always the same one. So while it may seem kind of whimsical and fun — which it is — the fact that Arizona is a border state and we have an international airport suggests that this technology, once proven to be effective, could be deployed in the state by agencies to enhance public safety, which is really exciting. If, by initially deploying and testing the technology in our stadium, we can prove it is efficient and effective, we can begin to then imagine how ASU could potentially partner with entities such as Phoenix Sky Harbor to test the technology from a security perspective.”

And that’s not all that’s being tested at Sun Devil Stadium.

“You know when you go to a stadium and they hand out prizes for the section that cheers the loudest? That’s all fake right now,” said Papa, explaining that ASU partnered with Intel to develop a groundbreaking noise-detection system. “Sun Devil Stadium is the first stadium to actually use real-time noise captured through sensors to choose the correct section that was actually the loudest.”

Papa said through a phone app, ASU can then alert the fans in that section that they’ve won a prize and can pick up a free T-shirt or soft drink at a certain location within the stadium. The app could even direct spectators to the shortest concession stand lines.

Bowman said campus testing could also help the region manage its most precious resources, including water.

“We know from our discussion with political leaders across the state that water is, and will remain, a challenging issue to manage — especially given the rate at which the region is growing,” she said. “Knowing where water is being used, where it is being lost, and the volumes associated with each, allows decision makers to make better investments in and around water usage. ASU buildings and, in particular, the dorm buildings, could be utilized for pilot programs around water metering. Nobody knows how much water is really being lost in the system, so finding out more about water loss and usage could help us be smarter consumers of water and better utilize that as a resource. There is also a great fiscal reason for doing so, too.”

Papa said the university’s evidence-based research role in the smart-region project aligns with ASU President Michael Crow’s focus on community impact and scalability.

“ASU has the unique advantage of having campuses, with students, scattered throughout the region that act as cities in and of themselves,” he said. “If we can rapidly test innovative new technologies on these campuses, continuously measure their impact, and ultimately validate them, we can then implement these solutions into the 22 cities and towns through the smart-region initiative. Furthermore, because all cities face similar challenges, we can then export these solutions to cities and regions around the world. The smart-region framework allows us to solve urban challenges at scale and accelerate technology commercialization, ultimately creating jobs and economic growth.”

And that, Bowman says, is what a university is all about.

“It’s about doing research, it’s about deploying technologies, it’s about bringing in students across all areas of study and giving them opportunities to develop solutions and experiment with them, whether that’s in a laboratory scenario or on campus,” she said. “And we also have the capacity — which cities and towns don’t necessarily have — to examine different technologies, analyze data and work out whether what is being proposed really is the best technology for meeting the challenges within our communities, including whether or not it is acceptable to the public, or whether we need to redesign and develop more. That’s exciting.”

Political factors

The push to develop and implement smart-city technology has something that so many other issues are lacking: bipartisan political support.

“That’s why we’ve been able to gain so much momentum in this area, and especially in this region,” Papa said. “Because for the left, the Democrats, this has a huge social aspect, specifically around quality-of-life and digital equity aspects. And for the right, the more conservative and Republican side, it’s about leveraging technologies to create efficiencies in government, thereby using less taxpayer dollars to deliver higher-quality services. Smart cities really hit on everyone’s ideals.”

But rapid advancements in technology can be frightening, stoking fears about privacy and safety. Eliminating red tape to encourage innovation and entrepreneurship must be balanced with just the right amount of regulatory precautions.

“I’m a person who continually stares at, and evaluates, the effectiveness of regulations in light of new and emerging technologies,” Bowman said. “My focus has, and continues to be, working out how the public sector can allow useful technologies into the market in the quickest and most efficient ways without endangering public health and safety. It’s about finding effective regulatory tools and strategies that have the necessary checks and balances that can then be streamlined in such a way that they’re not unduly burdensome.”

Papa said that’s why it’s exciting to have ASU Law play a role in the project. Especially with the law school now located in downtown Phoenix, in close proximity to the Arizona Capitol and Phoenix City Hall.

“This initiative is something that no one has tried at this scale probably ever before,” he said. “We’re talking about the fourth-largest county in the country, the fastest-growing in population, 22 separate jurisdictions, all fairly large, actually saying, ‘We’re going to work together to do this.’ It’s true that seemingly insurmountable challenges require unprecedented collaboration and no one has tried it at this scale before. There’s a new metropolitan revolution occurring in the Greater Phoenix region, and it’s being built around innovation and driven by collaboration. And while there will obviously be challenges, the potential benefits of it are incredible.”

Lauren Dickerson

Marketing and communications coordinator, Sandra Day O’Connor College of Law


Two ASU professors selected as American Association of Geographers Fellows

January 31, 2019

In preparation for its annual meeting, the American Association of Geographers has named its 2019 Fellows. Included in this year’s honors are two from Arizona State University’s School of Geographical Sciences and Urban Planning: Anthony Brazel and Martin Pasqualetti.

In 2018, the American Association of Geographers created the Fellows to recognize geographers who have made significant contributions to advancing the field of geography. Beyond the recognition, those selected as Fellows serve the AAG in creating and contributing to key initiatives, advising on strategic directions and mentoring early and mid-career faculty. Anthony Brazel (left) and Martin Pasqualetti of Arizona State University’s School of Geographical Sciences and Urban Planning have been selected to serve as American Association of Geographers Fellows, a testament to their contributions to the field of geography. Download Full Image

Being named an AAG Fellow adds another accolade to a long career of impactful work in the realm of urban climatology for Brazel. A professor emeritus in the School of Geographical Sciences and Urban Planning and senior sustainability scientist in the Julie Ann Wrigley Global Institute of Sustainability, Brazel was selected as an AAG Fellow due to his impressive scholarly record. He has also dedicated his time in service to both research scientists and the public as the state climatologist of Arizona and director of the Environmental Protection Agency’s Southwest Center for Environmental Research and Policy.

Among his list of accolades are the Arizona-Nevada Academy of Science’s Outstanding Service Award, the Helmut E. Landsberg Award from the American Meteorological Society, the Association of American Geographers Climate Specialty Group’s Lifetime Achievement Award and being named a Fellow of the American Association of the Advancement of Science.

A dedicated researcher and educator, Brazel shared his passion for climatology with undergraduate and graduate students, as well as the 20 doctoral students he mentored.

During his career, Brazel authored more than 150 research articles and reports, including publishing twice in Nature and three times in Science. 

“These and other influential works represent major advances in understanding urban climate in desert environments,” said the AAG in their announcement of the Brazel’s selection.  

Joining Brazel in the 2019 Fellows is Pasqualetti, a professor in the School of Geographical Sciences and Urban Planning and senior sustainability scientist in the Julie Ann Wrigley Global Institute of Sustainability. Pasqualetti, an acclaimed energy geographer, has produced groundbreaking research in the field, especially the geographies of nuclear power and renewable energy landscapes including geothermal, wind and solar power.

Pasqualetti has a long history of public service, including serving as chair of Arizona’s Solar Energy Advisory Council, co-authoring the Energy Emergency Response Plan and Master Energy Plan for the Arizona Governor’s Office of Energy Policy, and serving on both the advisory board of the European Conference of the Landscape Research Group and the Coalition for Action of the International Renewable Energy Agency.

Pasqualetti has also provided his knowledge and talents in contributing and serving as co-editor for several books, including "The Ashgate Companion to Energy Geography," "Wind Power in View" and "The Evolving Landscape: Homer Aschmann’s Geography." These books and his more than 100 research articles and reports have led to invitations to address international conferences and to advise public agencies including the U.S. Nuclear Regulatory Commission, the U.S. Department of Energy and the United Kingdom’s Central Electricity Generating Board.

Arizona State University and the School of Geographical Sciences and Urban Planning are well represented within the AAG Fellows. Brazel and Pasqualetti join Patricia Gober, a research professor and former director of the school, who was selected to the inaugural class of AAG Fellows in 2018.

Brazel and Pasqualetti will be honored as members of the 2019 class of Fellows during the AAG’s annual meeting in April.

Manager, Marketing and Communication, School of Geographical Sciences and Urban Planning