ASU Law appoints alum to lead Indian gaming and tribal self-governance programs

September 3, 2021

Derrick Beetso, a 2010 alumnus of the Sandra Day O’Connor College of Law at Arizona State University, has been named to take the helm of the college’s Indian gaming and tribal self-governance programs.

Beetso, a citizen of the Navajo Nation, earned his JD and certificate in Indian law as part of ASU Law’s nationally recognized Indian Legal Program. As director of the Indian gaming and tribal self-governance programs, he builds on the earlier leadership and work of ASU Law professors Lawrence Roberts and Ann Marie Bledsoe Downes, who helped launch the programs in 2019. Both recently went on leave from the college to serve in President Joe Biden’s administration. Photo of Derrick Beetso, new director of ASU Law Indian Gaming and Tribal Self-Governance programs ASU Law welcomes back alum Derrick Beetso to serve as the new director of its Indian gaming and tribal self-governance programs. Download Full Image

Prior to joining ASU Law, Beetso served as the general counsel for the National Congress of American Indians, the first and only Native person to ever serve in this capacity for the organization. While there, he handled in-house legal needs and co-managed the Tribal Supreme Court Project with the Native American Rights Fund.

Beetso also served as an attorney-adviser within the Office of the Solicitor’s Phoenix Field Office, where he provided legal services for the Western Region of the Bureau of Indian Affairs and the San Carlos Irrigation Project. Previously, he served as counselor to Assistant Secretary-Indian Affairs Kevin Washburn during President Barack Obama’s administration.

With his experience in Washington, D.C., and ASU Law’s growing presence there, Beetso will help to expand educational and career opportunities for Indian Legal Program students in the nation’s capital.

He will teach one of the program’s popular traveling classes this fall, allowing ASU Law students to study on the Washington, D.C., campus. The class, Federal Advocacy for the Tribal Client, is a unique experience that introduces students to decisionmakers and facilitates networking with future employers, while providing students time to explore opportunities in the city.

“We are excited to welcome one of our distinguished alums back to campus,” said Patty Ferguson Bohnee, faculty director for the Indian Legal Program and director of the Indian Legal Clinic. “Derrick Beetso has a deep understanding of Indian Affairs and has committed his career to advancing the rights of tribal nations. His experience working for tribes and the government, as well as his success in developing effective partnerships make him a perfect fit for our ILP team.”

Beetso said he is honored to return to ASU Law as faculty.

“The great work the ILP has done since its inception at ASU Law has furthered the life goals of so many talented Native and non-Native professionals and has helped ensure tribal nations receive excellent representation in the legal field,” he said. “I am humbled to be able to share my experience, and I look forward to contributing to the ILP’s mission as best I can.”

The first of their kind in the nation, the Indian gaming and tribal self-governance programs were established thanks to an initial contribution generously given by the San Manuel Band of Mission Indians to further ASU Law’s commitment to serving the educational needs of tribal nations. With the Indian gaming emphasis, ASU Law is providing in-depth courses for students on the regulation, compliance and implementation of Indian gaming. ASU Law’s Master of Legal Studies (MLS) degree will equip professionals with the essential legal components of Indian gaming to excel in careers that intersect with Indian gaming.

Similarly, the self-governance emphasis is designed to educate students, whether they desire to work for tribes, the federal government or states, in really understanding the legal framework of the tribal-federal relationship, the federal programs and statutes that promote tribal self-governance and the implementation of that legal framework.

The support from the San Manuel Band of Mission Indians will help increase educational opportunities in the field of Indian law and the expansion of work experiences for students interested in Indian law, and it will continue to contribute to the development of Indian law trainings for Indian tribes and organizations. To learn more about contributing to the programs, contact

Julie Tenney

Director of Communications, Sandra Day O'Connor College of Law

New research advances clean energy solutions

Ring-shaped molecules known as porphyrins have potential as effective catalyst

September 3, 2021

Meeting society’s growing energy needs has become a daunting challenge for humanity. Demands for energy are expected to nearly double by the year 2050, while the effects of climate change, caused by the burning of fossil fuels, are already wreaking havoc in the form of droughts, wildfires, floods and other disasters.

Gary Moore, a researcher at Arizona State University's Biodesign Center for Applied Structural Discovery and ASU's School of Molecular Sciences thinks chemistry will play a vital role in the development of clean solutions to the world’s mounting energy dilemma. Gary Moore and his colleagues describe the use of ring-shaped molecules known as porphyrins, seen in this graphic. Such molecules, among the most abundant pigments in nature, are noted for their ability to speed up or catalyze chemical reactions, including important reactions occurring in living systems. They are useful components for the design of artificial photosynthetic systems. Cover graphic for the journal by Jason Drees Download Full Image

In new research appearing on the cover of the journal ChemElectroChem, Moore and his colleagues describe the use of ring-shaped molecules known as porphyrins. Such molecules, among the most abundant pigments in nature, are noted for their ability to speed up or catalyze chemical reactions, including important reactions occurring in living systems.

Among these reactions is the conversion of radiant energy from the sun into chemical energy stored in molecular bonds, a process exploited by plants and photosynthetic microbes. This chemical energy can then be used to fuel the organism’s metabolism, through the process of cellular respiration.

Researchers like Moore hope to take a page from nature’s playbook, creating synthetic analogs to natural processes of photosynthesis. The new study describes a synthetic diiron-containing porphyrin and explores its potential as an effective catalyst.

Gary Moore is a researcher at the Biodesign Center for Applied Structural Discovery. Photo by Biodesign Institute

“Rather than exploiting the products of natural photosynthesis, we can be inspired by our knowledge of photosynthesis to pioneer new materials and technologies with properties and capabilities rivalling those of their biological counterparts,” Moore said.

Porphyrins, and their structurally related analogs, are found in abundance across the biological world. They act to bind a range of metal ions to perform far-flung cellular tasks. Chlorophyll molecules, for example, bind magnesium (a crucial chemical stage in plant photosynthesis), while heme – an iron-containing porphyrin — helps organize molecular oxygen and carbon-dioxide transport and provides the necessary electron-transport chains essential for cellular respiration. Because of their commanding role in life processes, porphyrin abnormalities are responsible for a range of serious diseases.

Porphyrins can also be used as catalysts in synthetic devices known as electrochemical cells, which convert chemical energy into electrical energy, or vice versa. Although radiant energy from the sun may be stored within conventional types of batteries, such applications are limited by their low-energy densities compared with fuels used for modern transportation.

Moore’s efforts to design artificial photosynthetic systems could provide a valuable piece of the renewable energy puzzle, producing “non-fossil-based” fuels as well as a range of beneficial commodities.

Such devices would allow the capture and storage of solar energy for use when and where it is needed and can be constructed using chemicals that are far cheaper and more abundant than the materials currently in use for conventional solar energy applications.

The paper has been selected for the cover of the current issue of the journal, with a descriptive graphic produced by Jason Drees, multimedia developer lead at ASU, and is part of a special collection dedicated to Professor Jean-Michel Savéant.

Richard Harth

Science writer, Biodesign Institute at ASU