Team Headshots

Team 0

Welcome! We are Team 0, 39 Alpha’s inaugural research team. Born in the scorching heat of the Sonoran desert in 2020, we met while working between Everett Shock’s GEOPIG lab (a group that explores organic processes in geochemistry) and Sara Walker’s ELife lab (where they study astrobiology and related physics problems).

We share a passion for pure science, developing novel research ideas, and building scientific software. We also crave the pursuit of challenging environmental projects that lie outside traditional disciplinary silos. We believe humanity is at a unique point in our collective history. We have the power to destroy the environment that sustains us while similtaneously harboring the intellect and compassion to investigate (and possibly mitigate) our impact on the Earth and its biosphere.

The diversity of our collective skill set and our interest in exceptionally interdisciplinary research made it unlikely that we would get hired somewhere together to do environmental research, so we decided to strike out on our own under guiding principles that we believe should be common in science (but are not – yet). We research as a team, publish as a team, and make our software and research public as a team. While the scientific community does not traditionally conduct research in this way, we believe they should. We are living the change we want to see in science.

Each of us at Team 0 maintains our public science careers in geochemistry, physics, and astrobiology. However, as Team 0, we conduct research on original projects vital to the environment.

We are actively working on our Carbonate State-Space project to quantify the effect of $\ce{CO2}$-induced acidification on calcifying organisms in the Northern Pacific Ocean. This project employs Eleanor, a unique Python package developed by Team 0 in collaboration with Brandy Toner and NASA’s Exploring Ocean Worlds initiative. (Once we complete beta testing, Eleanor will be released publically on our Github profile.)

We are also exploring new project ideas related to clean hydrogen generation from geologic sources, which is motivated by Tucker Ely’s recent paper on $\ce{H2}$-generation in ultramafic-hosted hydrothermal. Hydrogen has the potential to replace hydrocarbons as society’s dominant energy source. We are interested in discovering new geologic settings and conditions that might yield large quantities of hydrogen naturally, and also exploring which of these settings might be easily harnessed by engineered solutions.

If you want to support our environmental research efforts, please consider donating. All donations to 39 Alpha support Team 0’s active research projects.

Experience

NASA Astrobiology Postdoctoral Fellow 2021-Present
Arizona State University and Santa Fe Institute
NASA Postdoctoral Fellow 2020-Present
Toner Laboratory for Low Temperature Geochemistry
University of Minnesota
Postdoctoral Research Scientist, Team Leader 2018-2021
Cronin Group for Complex Chemical Systems
Department of Chemistry
University of Glasgow
Postdoctoral Research Scholar 2016-2021
Walker Lab, ELIFE
BEYOND Center for Fundamental Concepts in Science
Arizona State University
Graduate Researcher 2013-2020
Group Exploring Organic Processes in Geochemistry
School of Earth and Space Exploration
Arizona State University
Graduate Researcher 2014-2018
Walker Lab, ELIFE
School of Earth and Space Exploration
Arizona State University
Graduate Researcher 2016-2016
Group Exploring Organic Processes in Geochemistry
Complex Systems Summer School
Santa Fe Institute
Instructor 2016-2016
Sawant Lab
Department of Radiation Oncology
University of Maryland, Baltimore
Postdoctoral Researcher 2015-2016
Sawant Lab
Department of Radiation Oncology
The University of Texas Southwestern Medical Center
Graduate Researcher 2014-2014
Complex Systems Summer School
Santa Fe Institute
Adjunct Faculty 2012-2014
Department of Mathematics and Physics
McLennan Community College
Undergraudate Researcher 2012-2012
Johnson Lab
Planetary Ices Group
Jet Propulsion Laboratory
Undergraudate Researcher 2011-2012
Saltikov Lab
Microbiology and Environmental Toxicology
University of California, Santa Cruz

Publications

  1. , , , et al. 2023. Phosphate availability and implications for life on ocean worlds. Nature communications, 14,
  2. , , , et al. 2023. Huge variation in h2 generation during seawater alteration of ultramafic rocks. Geochemistry, Geophysics, Geosystems, 24, doi:10.1029/2022GC010658.
  3. , , , et al. 2023. Quantifying the bioavailable energy in an ancient hydrothermal vent on mars and a modern earth-based analog. Astrobiology,
  4. , , , et al. 2022. AqEquil: Python package for aqueous geochemical speciation (0.15. 3). Zenodo. doi, 10,
  5. , , , et al. 2022. Formalising the pathways to life using assembly spaces. Entropy, 24,
  6. , , , et al. 2022. Mineral-catalysed formation of marine no and n2o on the anoxic early earth. Nature Geoscience,
  7. , , , et al. 2021. The information signature of diverging lineages. bioRxiv,
  8. , , , et al. 2021. Investigating the autocatalytically driven formation of keggin-based polyoxometalate clusters. Matter,
  9. , , , et al. 2021. Forward geochemical modeling as a guiding tool during exploration of sea cliff hydrothermal field, gorda ridge. Planetary and Space Science, 197,
  10. , , 2021. Decreasing extents of archean serpentinization contributed to the rise of an oxidized atmosphere. Nature communications, 12,
  11. , , , et al. 2021. Exploring the sequence space of unknown oligomers and polymers. Cell Reports Physical Science, 2,
  12. , , , et al. 2021. A robotic prebiotic chemist probes long term reactions of complexifying mixtures. Nature communications, 12,
  13. , , , et al. 2021. Exploring and mapping chemical space with molecular assembly trees. Science advances, 7,
  14. , , , et al. 2021. Identifying molecules as biosignatures with assembly theory and mass spectrometry. Nature communications, 12,
  15. , , , et al. 2020. Spontaneous formation of autocatalytic sets with self-replicating inorganic metal oxide clusters. Proceedings of the National Academy of Sciences, 117,
  16. 2020. Meaning of the living state. Social and Conceptual Issues in Astrobiology,
  17. 2020. Thermodynamic cartography in basalt-hosted hydrothermal systems.
  18. , , , et al. 2019. Quantifying the pathways to life using assembly spaces. arXiv preprint arXiv:1907.04649,
  19. , , , et al. 2019. Individual perception dynamics in drunk games. Physical Review E, 99,
  20. , , , et al. 2019. Environmental control programs the emergence of distinct functional ensembles from unconstrained chemical reactions. Proceedings of the National Academy of Sciences, 116,
  21. , , , et al. 2019. Universal scaling across biochemical networks on earth. Science Advances, 5,
  22. , , , et al. 2019. Technical note: In silico and experimental evaluation of two leaf-fitting algorithms for mlc tracking based on exposure error and plan complexity. Medical physics, 46,
  23. , 2019. Inferring a graph’s topology from games played on it. The 2019 conference on artificial life, 31,
  24. , 2018. Network theory in prebiotic evolution. Prebiotic chemistry and chemical evolution of nucleic acids,
  25. , , 2018. Pattern regeneration in coupled networks. ALIFE 2018: The 2018 conference on artificial life, 30,
  26. , , , et al. 2018. Criticality distinguishes the ensemble of biological regulatory networks. Physical review letters, 121,
  27. , , , et al. 2018. Transfer of information in collective decisions by artificial agents. The 2018 Conference on Artificial Life: A Hybrid of the European Conference on Artificial Life (ECAL) and the International Conference on the Synthesis and Simulation of Living Systems (ALIFE),
  28. , , , et al. 2018. Inform: Efficient information-theoretic analysis of collective behaviors. Frontiers in Robotics and AI, 5,
  29. , , , et al. 2017. Prebiotic rna network formation: A taxonomy of molecular cooperation. Life, 7,
  30. , , 2017. The emergence of life as a first-order phase transition. Astrobiology, 17,
  31. , , 2017. Cancer as a disorder of patterning information: Computational and biophysical perspectives on the cancer problem. Convergent Science Physical Oncology, 3,
  32. , , , et al. 2017. Inform: A toolkit for information-theoretic analysis of complex systems. 2017 ieee symposium series on computational intelligence (ssci),
  33. 2016. The landscape of free fermionic gauge models.
  34. , , 2016. Fast leaf-fitting with generalized underdose/overdose constraints for real-time mlc tracking. Medical physics, 43,
  35. , , , et al. 2015. Spectroscopy and viability of bacillus subtilis spores after ultraviolet irradiation: Implications for the detection of potential bacterial life on europa. Astrobiology, 15,
  36. 2014. The systematic construction of free fermionic heterotic string gauge models. Journal of physics. Conference series, 485,
  37. , 2014. Spectral dimension of bosonic string theory. Physical Review D, 90,
  38. , , , et al. 2013. Initial systematic investigations of the landscape of low-layer nahe variation extensions. International Scholarly Research Notices, 2013,
  39. , , 2013. GAUGE models in d dimensions. Modern Physics Letters A, 28,
  40. , 2013. THE fate of lorentz frame in the vicinity of black hole singularity. International Journal of Modern Physics D, 22,
  41. , , , et al. 2012. Initial systematic investigations of the landscape of low layer nahe extensions. European Physical Journal C: Particles and Fields, 72,
  42. , , , et al. 2011. On a nahe variation. Nuclear Physics B, 850,
  43. , , , et al. 2011. Investigation of quasi-realistic heterotic string models with reduced higgs spectrum. European Physical Journal C: Particles and Fields, 71,
  44. , , , et al. 2011. REDUNDANCIES in explicitly constructed ten-dimensional heterotic string models. International journal of modern physics. A, Particles and fields, gravitation, cosmology, 26,
  45. , , , et al. 2011. Algorithm for determining u(1) charges in free fermionic heterotic string models.
  46. , , , et al. 2011. SYSTEMATIC investigations of the free fermionic heterotic string gauge group statistics: LAYER 1 results. Modern Physics Letters A, 26,