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Science Opportunities

Because of its versatility and prioritization of late loading for biological payloads, SpinSat is well suited to host a wide range of experiments from human tissues and organoids to microorganisms, plants, and chemical and physical systems.

Send your science experiments beyond LEO

types of science for spinsat

A science platform for automated and complex space experiments.  SpinSat provides frequent and low-cost access to space which can provide simultaneous measurements at multiple gravity and radiation levels.

Participate on a SpinSat Science Advisory Team

Would you like to participate on an Advisory Team? If so, what team would interest you? Contact us at: ARC-SpinSat@mail.nasa.gov

  • Biological Sciences (emphasis on radiation and gravity effects)
    • Human Biology (organoids and tissues on chips)
    • Model Organisms
      • Microbes
      • Plants Biology
      • Synthetic Biology
  • Physical Sciences
  • Heliophysics
  • Astrobiology
    • Prebiotic Chemistry
    • Adaptation, Survival, and Habitability

Science Rationales

  • Combined radiation/reduced gravity consequences: mammalian cells, human gene carriers (e.g.yeast), model organisms.
    • DNA damage: wound healing, cancer
    • Cell membrane damage: central nervous system
    • Oxidation: compromised defense to hazards & pathogens
    • Protein damage: impaired bone & muscle function
    • Measurement targets (subset): Gene expression; protein expression; metabolites, signalers, excretates; growth, kill curves; behavior, etc….

Example Science Experiments

  • Comparison of organisms from across the tree of life in their responses to deep-space radiation and microgravity
  • Evaluate deep space impacts on organ function using tissue chips or organoid of mammalian cells. 
  • Determine cellular sensitivities and effects of deep-space and lunar radiation environments on:
    • fundamental metabolic responses
    • bioproduction of human-relevant nutrients
  • measure evolutionary changes  for microbiomes living and evolving over 1000s of generations beyond LEO
  • Measure plant stress response in plant seedling development and photosynthesis. 
  • Measure changes in cellular morphology, viability, metabolism
  • Evaluate effects on DNA integrity and its maintenance/repair
  • Understand the role and importance of oxidative stress
  • Evaluate synthetic biology-enabled production of anti-oxidants (nutrients/proteins) under deep space and lunar surface conditions
  • Study changes in the genome
  • Study targeted changes in the transcriptome, proteome, and metabolome
  • Understand changes in pharmacological efficacy, specificity
  •  Study plant germination, growth, tropisms, 2° metabolite production, and produced food quality
  • Characterize the effects of plant-microbe interactions