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  1. Simplifying process models to reduce processing time and feed other models, soil temperature with depth at a daily resolution is well (within 1-2 degrees) approximated with simplified with biomass, air temperature, and thermal diffusion. Parton 1984 journals.lww.com/soilsci/abstr #SciLit #ReducedComplexityModel #SoilTemperatureResponse #soil

  2. Simplifying process models to reduce processing time and feed other models, soil temperature with depth at a daily resolution is well (within 1-2 degrees) approximated with simplified with biomass, air temperature, and thermal diffusion. Parton 1984 journals.lww.com/soilsci/abstr #SciLit #ReducedComplexityModel #SoilTemperatureResponse #soil

  3. Simplifying process models to reduce processing time and feed other models, soil temperature with depth at a daily resolution is well (within 1-2 degrees) approximated with simplified with biomass, air temperature, and thermal diffusion. Parton 1984 journals.lww.com/soilsci/abstr #SciLit #ReducedComplexityModel #SoilTemperatureResponse #soil

  4. Simplifying process models to reduce processing time and feed other models, soil temperature with depth at a daily resolution is well (within 1-2 degrees) approximated with simplified with biomass, air temperature, and thermal diffusion. Parton 1984 journals.lww.com/soilsci/abstr #SciLit #ReducedComplexityModel #SoilTemperatureResponse #soil

  5. Simplifying process models to reduce processing time and feed other models, soil temperature with depth at a daily resolution is well (within 1-2 degrees) approximated with simplified with biomass, air temperature, and thermal diffusion. Parton 1984 journals.lww.com/soilsci/abstr #SciLit #ReducedComplexityModel #SoilTemperatureResponse #soil

  6. Communicating models and their outputs is often challenging. PAVE (Purpose, Assumptions, Validity, and Exploration) is a semi-structured description of computational and mathematical models designed to bridge the communication boundary between modelers and non-modelers. Bell et al 2026 doi.org/10.1093/biosci/biag010 #Models #HowToScience #SciLit

  7. Communicating models and their outputs is often challenging. PAVE (Purpose, Assumptions, Validity, and Exploration) is a semi-structured description of computational and mathematical models designed to bridge the communication boundary between modelers and non-modelers. Bell et al 2026 doi.org/10.1093/biosci/biag010 #Models #HowToScience #SciLit

  8. Communicating models and their outputs is often challenging. PAVE (Purpose, Assumptions, Validity, and Exploration) is a semi-structured description of computational and mathematical models designed to bridge the communication boundary between modelers and non-modelers. Bell et al 2026 doi.org/10.1093/biosci/biag010 #Models #HowToScience #SciLit

  9. Communicating models and their outputs is often challenging. PAVE (Purpose, Assumptions, Validity, and Exploration) is a semi-structured description of computational and mathematical models designed to bridge the communication boundary between modelers and non-modelers. Bell et al 2026 doi.org/10.1093/biosci/biag010 #Models #HowToScience #SciLit

  10. Communicating models and their outputs is often challenging. PAVE (Purpose, Assumptions, Validity, and Exploration) is a semi-structured description of computational and mathematical models designed to bridge the communication boundary between modelers and non-modelers. Bell et al 2026 doi.org/10.1093/biosci/biag010 #Models #HowToScience #SciLit

  11. NASA's #data collection has undergone massive shifts in lifecycle management, #FAIR_data, technological trends, and policy. Evolving from 1980s magnetic tapes to a network of over 30 online repositories, the tech trends are easiest to identify. Adoption of #DataPipeline and #DataStandards an ongoing focus. #DataGovernance and #DataRescue are emerging. NASA #DataStewardship navigates rapid technology and long-term science.

    Bugbee, K., & Ramachandran, R. (2025) doi.org/10.1029/2025EA004413 #SciLit

  12. NASA's #data collection has undergone massive shifts in lifecycle management, #FAIR_data, technological trends, and policy. Evolving from 1980s magnetic tapes to a network of over 30 online repositories, the tech trends are easiest to identify. Adoption of #DataPipeline and #DataStandards an ongoing focus. #DataGovernance and #DataRescue are emerging. NASA #DataStewardship navigates rapid technology and long-term science.

    Bugbee, K., & Ramachandran, R. (2025) doi.org/10.1029/2025EA004413 #SciLit

  13. NASA's #data collection has undergone massive shifts in lifecycle management, #FAIR_data, technological trends, and policy. Evolving from 1980s magnetic tapes to a network of over 30 online repositories, the tech trends are easiest to identify. Adoption of #DataPipeline and #DataStandards an ongoing focus. #DataGovernance and #DataRescue are emerging. NASA #DataStewardship navigates rapid technology and long-term science.

    Bugbee, K., & Ramachandran, R. (2025) doi.org/10.1029/2025EA004413 #SciLit

  14. NASA's #data collection has undergone massive shifts in lifecycle management, #FAIR_data, technological trends, and policy. Evolving from 1980s magnetic tapes to a network of over 30 online repositories, the tech trends are easiest to identify. Adoption of #DataPipeline and #DataStandards an ongoing focus. #DataGovernance and #DataRescue are emerging. NASA #DataStewardship navigates rapid technology and long-term science.

    Bugbee, K., & Ramachandran, R. (2025) doi.org/10.1029/2025EA004413 #SciLit

  15. NASA's #data collection has undergone massive shifts in lifecycle management, #FAIR_data, technological trends, and policy. Evolving from 1980s magnetic tapes to a network of over 30 online repositories, the tech trends are easiest to identify. Adoption of #DataPipeline and #DataStandards an ongoing focus. #DataGovernance and #DataRescue are emerging. NASA #DataStewardship navigates rapid technology and long-term science.

    Bugbee, K., & Ramachandran, R. (2025) doi.org/10.1029/2025EA004413 #SciLit

  16. Operationalize CARE data governance by 1) centering relationships both individual and institutional, 2) practicing ongoing learning and assessment of governance, 3) collaborative permitting including shared protocols, and 4) documentation of governance reflected in metadata and naming. Jennings et al 2025 doi.org/10.1038/s41467-024-534 #DataGovernance #CAREData #OperationalEthics #SciLit

  17. Operationalize CARE data governance by 1) centering relationships both individual and institutional, 2) practicing ongoing learning and assessment of governance, 3) collaborative permitting including shared protocols, and 4) documentation of governance reflected in metadata and naming. Jennings et al 2025 doi.org/10.1038/s41467-024-534 #DataGovernance #CAREData #OperationalEthics #SciLit

  18. Operationalize CARE data governance by 1) centering relationships both individual and institutional, 2) practicing ongoing learning and assessment of governance, 3) collaborative permitting including shared protocols, and 4) documentation of governance reflected in metadata and naming. Jennings et al 2025 doi.org/10.1038/s41467-024-534 #DataGovernance #CAREData #OperationalEthics #SciLit

  19. Operationalize CARE data governance by 1) centering relationships both individual and institutional, 2) practicing ongoing learning and assessment of governance, 3) collaborative permitting including shared protocols, and 4) documentation of governance reflected in metadata and naming. Jennings et al 2025 doi.org/10.1038/s41467-024-534 #DataGovernance #CAREData #OperationalEthics #SciLit

  20. Operationalize CARE data governance by 1) centering relationships both individual and institutional, 2) practicing ongoing learning and assessment of governance, 3) collaborative permitting including shared protocols, and 4) documentation of governance reflected in metadata and naming. Jennings et al 2025 doi.org/10.1038/s41467-024-534 #DataGovernance #CAREData #OperationalEthics #SciLit

  21. The ARID project scoped a possible new #dryland focused project area for NASA. Emerging high resolution spatial-temporal satellite and other data products provides new prospectives on the pulse-y hydrology that governs drylands. Drylands make up a large socially-important biome and right holder #engagement needs to be prioritized to provide #ActionableScience. Feldman etal 2024 doi.org/10.1029/2024EF004811 #SciLit

  22. The ARID project scoped a possible new #dryland focused project area for NASA. Emerging high resolution spatial-temporal satellite and other data products provides new prospectives on the pulse-y hydrology that governs drylands. Drylands make up a large socially-important biome and right holder #engagement needs to be prioritized to provide #ActionableScience. Feldman etal 2024 doi.org/10.1029/2024EF004811 #SciLit

  23. The ARID project scoped a possible new #dryland focused project area for NASA. Emerging high resolution spatial-temporal satellite and other data products provides new prospectives on the pulse-y hydrology that governs drylands. Drylands make up a large socially-important biome and right holder #engagement needs to be prioritized to provide #ActionableScience. Feldman etal 2024 doi.org/10.1029/2024EF004811 #SciLit

  24. The ARID project scoped a possible new #dryland focused project area for NASA. Emerging high resolution spatial-temporal satellite and other data products provides new prospectives on the pulse-y hydrology that governs drylands. Drylands make up a large socially-important biome and right holder #engagement needs to be prioritized to provide #ActionableScience. Feldman etal 2024 doi.org/10.1029/2024EF004811 #SciLit

  25. The ARID project scoped a possible new #dryland focused project area for NASA. Emerging high resolution spatial-temporal satellite and other data products provides new prospectives on the pulse-y hydrology that governs drylands. Drylands make up a large socially-important biome and right holder #engagement needs to be prioritized to provide #ActionableScience. Feldman etal 2024 doi.org/10.1029/2024EF004811 #SciLit

  26. Training PhD students often follows ‘magician’s apprentice’ approach where advisors taking hands-on/off approach but rarely have a more nuanced language to discuss the advising journey. Wagner etal 2017 facetsjournal.com/doi/10.1139/ introduces stages 1) enthusiastic beginner, 2) discouraged learner, 3) cautious performer, and 4) self-reliant achiever. They frame roles and strategies for each stage for both the mentor and mentee and provide worksheets in their SI. #HowToScience #Mentoring #SciLit

  27. Training PhD students often follows ‘magician’s apprentice’ approach where advisors taking hands-on/off approach but rarely have a more nuanced language to discuss the advising journey. Wagner etal 2017 facetsjournal.com/doi/10.1139/ introduces stages 1) enthusiastic beginner, 2) discouraged learner, 3) cautious performer, and 4) self-reliant achiever. They frame roles and strategies for each stage for both the mentor and mentee and provide worksheets in their SI. #HowToScience #Mentoring #SciLit

  28. Training PhD students often follows ‘magician’s apprentice’ approach where advisors taking hands-on/off approach but rarely have a more nuanced language to discuss the advising journey. Wagner etal 2017 facetsjournal.com/doi/10.1139/ introduces stages 1) enthusiastic beginner, 2) discouraged learner, 3) cautious performer, and 4) self-reliant achiever. They frame roles and strategies for each stage for both the mentor and mentee and provide worksheets in their SI. #HowToScience #Mentoring #SciLit

  29. Training PhD students often follows ‘magician’s apprentice’ approach where advisors taking hands-on/off approach but rarely have a more nuanced language to discuss the advising journey. Wagner etal 2017 facetsjournal.com/doi/10.1139/ introduces stages 1) enthusiastic beginner, 2) discouraged learner, 3) cautious performer, and 4) self-reliant achiever. They frame roles and strategies for each stage for both the mentor and mentee and provide worksheets in their SI. #HowToScience #Mentoring #SciLit

  30. Training PhD students often follows ‘magician’s apprentice’ approach where advisors taking hands-on/off approach but rarely have a more nuanced language to discuss the advising journey. Wagner etal 2017 facetsjournal.com/doi/10.1139/ introduces stages 1) enthusiastic beginner, 2) discouraged learner, 3) cautious performer, and 4) self-reliant achiever. They frame roles and strategies for each stage for both the mentor and mentee and provide worksheets in their SI. #HowToScience #Mentoring #SciLit

  31. Agroecosystem is a promising shift in how we feed ourselves that has been under developed outside of academia for a number of political and economic reasons. Scientists, food security advocates, and social justice organizations need to rethink how we can leverage an integrated understanding of social and ecological systems to feed ourselves in the future. (Ong etal 2024 doi.org/10.1038/s43016-024-010)

    #agroecosystem #ecology #agricultural #TheoryOfChange #SciLit

  32. Agroecosystem is a promising shift in how we feed ourselves that has been under developed outside of academia for a number of political and economic reasons. Scientists, food security advocates, and social justice organizations need to rethink how we can leverage an integrated understanding of social and ecological systems to feed ourselves in the future. (Ong etal 2024 doi.org/10.1038/s43016-024-010)

    #agroecosystem #ecology #agricultural #TheoryOfChange #SciLit

  33. Agroecosystem is a promising shift in how we feed ourselves that has been under developed outside of academia for a number of political and economic reasons. Scientists, food security advocates, and social justice organizations need to rethink how we can leverage an integrated understanding of social and ecological systems to feed ourselves in the future. (Ong etal 2024 doi.org/10.1038/s43016-024-010)

    #agroecosystem #ecology #agricultural #TheoryOfChange #SciLit

  34. Agroecosystem is a promising shift in how we feed ourselves that has been under developed outside of academia for a number of political and economic reasons. Scientists, food security advocates, and social justice organizations need to rethink how we can leverage an integrated understanding of social and ecological systems to feed ourselves in the future. (Ong etal 2024 doi.org/10.1038/s43016-024-010)

    #agroecosystem #ecology #agricultural #TheoryOfChange #SciLit

  35. Agroecosystem is a promising shift in how we feed ourselves that has been under developed outside of academia for a number of political and economic reasons. Scientists, food security advocates, and social justice organizations need to rethink how we can leverage an integrated understanding of social and ecological systems to feed ourselves in the future. (Ong etal 2024 doi.org/10.1038/s43016-024-010)

    #agroecosystem #ecology #agricultural #TheoryOfChange #SciLit

  36. New study: "Non-selective databases (#Dimensions, #OpenAlex, #Scilit, and #TheLens) index a greater amount of retracted literature than do databases that rely their indexation on venue selection (#PubMed, #Scopus, and #WoS)…The high coverage of OpenAlex and Scilit could be explained by the inaccurate labeling of retracted documents in #Scopus, Dimensions, and The Lens."
    link.springer.com/article/10.1

    #Retractions

  37. New study: "Non-selective databases (#Dimensions, #OpenAlex, #Scilit, and #TheLens) index a greater amount of retracted literature than do databases that rely their indexation on venue selection (#PubMed, #Scopus, and #WoS)…The high coverage of OpenAlex and Scilit could be explained by the inaccurate labeling of retracted documents in #Scopus, Dimensions, and The Lens."
    link.springer.com/article/10.1

    #Retractions

  38. New study: "Non-selective databases (#Dimensions, #OpenAlex, #Scilit, and #TheLens) index a greater amount of retracted literature than do databases that rely their indexation on venue selection (#PubMed, #Scopus, and #WoS)…The high coverage of OpenAlex and Scilit could be explained by the inaccurate labeling of retracted documents in #Scopus, Dimensions, and The Lens."
    link.springer.com/article/10.1

    #Retractions

  39. New study: "Non-selective databases (#Dimensions, #OpenAlex, #Scilit, and #TheLens) index a greater amount of retracted literature than do databases that rely their indexation on venue selection (#PubMed, #Scopus, and #WoS)…The high coverage of OpenAlex and Scilit could be explained by the inaccurate labeling of retracted documents in #Scopus, Dimensions, and The Lens."
    link.springer.com/article/10.1

    #Retractions

  40. New study: "Non-selective databases (#Dimensions, #OpenAlex, #Scilit, and #TheLens) index a greater amount of retracted literature than do databases that rely their indexation on venue selection (#PubMed, #Scopus, and #WoS)…The high coverage of OpenAlex and Scilit could be explained by the inaccurate labeling of retracted documents in #Scopus, Dimensions, and The Lens."
    link.springer.com/article/10.1

    #Retractions

  41. Flat teams drive scientific innovation, moving beyond team size Xu etal 2022 (pnas.org/doi/pdf/10.1073/pnas.) looked at reported contribution, contextual authorship records, and author ordering to disentangle + quantify relative leadership contributions. Tall teams maximize immediate benefits to senior leads, flat teams were more innovative. #TeamScience #SciLit

  42. Flat teams drive scientific innovation, moving beyond team size Xu etal 2022 (pnas.org/doi/pdf/10.1073/pnas.) looked at reported contribution, contextual authorship records, and author ordering to disentangle + quantify relative leadership contributions. Tall teams maximize immediate benefits to senior leads, flat teams were more innovative. #TeamScience #SciLit

  43. Flat teams drive scientific innovation, moving beyond team size Xu etal 2022 (pnas.org/doi/pdf/10.1073/pnas.) looked at reported contribution, contextual authorship records, and author ordering to disentangle + quantify relative leadership contributions. Tall teams maximize immediate benefits to senior leads, flat teams were more innovative. #TeamScience #SciLit

  44. Flat teams drive scientific innovation, moving beyond team size Xu etal 2022 (pnas.org/doi/pdf/10.1073/pnas.) looked at reported contribution, contextual authorship records, and author ordering to disentangle + quantify relative leadership contributions. Tall teams maximize immediate benefits to senior leads, flat teams were more innovative. #TeamScience #SciLit

  45. Flat teams drive scientific innovation, moving beyond team size Xu etal 2022 (pnas.org/doi/pdf/10.1073/pnas.) looked at reported contribution, contextual authorship records, and author ordering to disentangle + quantify relative leadership contributions. Tall teams maximize immediate benefits to senior leads, flat teams were more innovative. #TeamScience #SciLit

  46. Socio-environmental design process for a just climate transition seeking to be community centered and adaptive rather the proscriptive, this approach blends complexity theory with social justice. Enfors-Kaustky etal 2021 ecologyandsociety.org/vol26/is #JustTransition #ClimateChange #SciLit

  47. Socio-environmental design process for a just climate transition seeking to be community centered and adaptive rather the proscriptive, this approach blends complexity theory with social justice. Enfors-Kaustky etal 2021 ecologyandsociety.org/vol26/is #JustTransition #ClimateChange #SciLit

  48. Socio-environmental design process for a just climate transition seeking to be community centered and adaptive rather the proscriptive, this approach blends complexity theory with social justice. Enfors-Kaustky etal 2021 ecologyandsociety.org/vol26/is #JustTransition #ClimateChange #SciLit

  49. Socio-environmental design process for a just climate transition seeking to be community centered and adaptive rather the proscriptive, this approach blends complexity theory with social justice. Enfors-Kaustky etal 2021 ecologyandsociety.org/vol26/is #JustTransition #ClimateChange #SciLit

  50. Socio-environmental design process for a just climate transition seeking to be community centered and adaptive rather the proscriptive, this approach blends complexity theory with social justice. Enfors-Kaustky etal 2021 ecologyandsociety.org/vol26/is #JustTransition #ClimateChange #SciLit

  51. Simplified land carbon model is consistent with global data products and allows for unique structural and parameter uncertainty analysis. Smith et al 2013 bg.copernicus.org/articles/10/ #LandCarbon #GlobalModel #ModelingMethod #SciLit

  52. Simplified land carbon model is consistent with global data products and allows for unique structural and parameter uncertainty analysis. Smith et al 2013 bg.copernicus.org/articles/10/ #LandCarbon #GlobalModel #ModelingMethod #SciLit

  53. Simplified land carbon model is consistent with global data products and allows for unique structural and parameter uncertainty analysis. Smith et al 2013 bg.copernicus.org/articles/10/ #LandCarbon #GlobalModel #ModelingMethod #SciLit

  54. Simplified land carbon model is consistent with global data products and allows for unique structural and parameter uncertainty analysis. Smith et al 2013 bg.copernicus.org/articles/10/ #LandCarbon #GlobalModel #ModelingMethod #SciLit

  55. Simplified land carbon model is consistent with global data products and allows for unique structural and parameter uncertainty analysis. Smith et al 2013 bg.copernicus.org/articles/10/ #LandCarbon #GlobalModel #ModelingMethod #SciLit