Publications, Acknowledgements, and References

Acknowledgements

Support from NSF grants AST-1910396, AST-2108975 and NASA grants 80NSSC22K0622, 80NSSC21K0245, and NNX16AB76G is gratefully acknowledged.

Publications

  1. Rotation Among TESS-Selected Wide Non-Interacting Binaries. Citation: Oswalt, T., Buzasi, D., Otani, T., Vaidya, S., Shanahan, C., & Grigorov, P. (2022). Rotation Among TESS-Selected Wide Non-Interacting Binaries. Bulletin of the AAS, 54(6). https://baas.aas.org/pub/2022n6i208p02 (source)
  2. A Monte Carlo Method for Evaluating Empirical Gyrochronology Models and Its Application to Wide Binary Benchmarks. Citation: Tomomi Otani et al 2022 ApJ 930 36. DOI:10.3847/1538-4357/ac6035 (source)
  3. Testing the Gyrochronology Paradigm Using Wide Coeval Binary Stars. Citation: Confeiteiro, K., Shanahan, C., Grigorov, P., Lutzel, S., Vaidya, S., Oswalt, T., & Buzasi, D. (2023, April 12). Testing the gyrochronology paradigm using wide coeval binary stars. Scholarly Commons. (source)
  1. Calibration of the H-alpha Age-Activity Relation for M Dwarfs. Citation: Rocio Kiman et al 2021 AJ 161 277 (source)
  2. wdwarfdate: A Python Package to Derive Bayesian Ages of White Dwarfs. Citation: Rocio Kiman et al 2022 AJ 164 62 (source)
  3. Constraints on the Spindown of Fully Convective M Dwarfs Using Wide Field Binaries. Citation: Emily K. Pass et al 2022 ApJ 936 109 (source)

References

*These include references for previous posters along with references used in proposals for the NSF and NASA (download list as a PDF).

  1. Aigrain, S. et al. (13 coauthors) 2015, “Testing the Recovery of Stellar Rotation Signals from Kepler Light Curves Using a Blind Hare-and-Hounds Exercise,” MNRAS, 450, 3211-3226 .
  2. Aigrain, S., Parviainen, H., Pope, B. 2016, “K2SC: Flexible Systematics Correction and Detrending of K2 Light Curves Using Gaussian Process Regression,” MNRAS, 459, 2408-19 .
  3. Anderson, T., Darling, D. 1954, “A Test of Goodness-of-Fit,” J. Am. Stat. Assoc. 49, 765 .
  4. Andrews, J., Agueros, M., Gianninas, A. et al. 2015, “Constraints on the Initial-Final Mass Relation from Wide Double White Dwarfs,” ApJ 815, 63 .
  5. Andrews, J., Chaname, J., Agueros, M. 2017, “Wide Binaries in Tycho-Gaia: Search Method and the Distribution of Orbital Separations,” MNRAS 472, 675 .
  6. Andrews, J., Chaname, J., Agueros, M. 2018, “Wide Binaries in Tycho-Gaia II: Metallicities, Abundances and Prospects for Chemical Tagging,” MNRAS 473, 5393 .
  7. Angus, R., Aigrain, S., Foreman-Mackey, D., McQuillan, A. 2015, “Calibrating Gyrochronology Using Kepler Asteroseismic Targets,” MNRAS 450, 1787 .
  8. Angus, R., Beane, A., Price-Whelan, A., Newton, E., Curtis, J., Berger, T., van Saders, J., Kiman, R., Foreman-Mackey, D., Lu, Y., Anderson, L., Faherty, J. 2020, “Exploring the Evolution of Stellar Rotation Using Galactic Kinematics,” AJ 160, 90 .
  9. Angus, R., Beane, A., Price-Whelan, A., Newton, E., Curtis, J., Berger, T., van Saders, J., Kiman, R., Foreman-Mackey, D., Lu, Y., Anderson, L., Faherty, J. 2020, “Exploring the Evolution of Stellar Rotation Using Galactic Kinematics,” AJ 160, 90 .
  10. Angus, R., Morton, T., Foreman-Mackey, D., van Saders, J., Curtis, J., Kane, S., Bedell, M. Kiman, R., Hogg, D., Brewer, J. 2019, “Toward Precise Stellar Ages: Combining Isochrone Fitting with Empirical Gyrochronology,” AJ 158, 173 .
  11. Angus, R., Morton, T., Foreman-Mackey, D., van Saders, J., Curtis, J., Kane, S., Bedell, M. Kiman, R., Hogg, D., Brewer, J. 2019, “Toward Precise Stellar Ages: Combining Isochrone Fitting with Empirical Gyrochronology,” AJ 158, 173 .
  12. Barclay, T., Barentsen, G. 2018, “A Catalog of Stars Observed Simultaneously by Kepler and TESS,” RNAAS 2, 192 .
  13. Barnes, S. 2001, “An Assessment of the Rotation Rates of the Host Stars of Extrasolar Planets,” ApJ 561, 1095 .
  14. Barnes, S. 2003, “On the Rotational Evolution of Solar- and Late-Type Stars, Its Magnetic Origins, and the Possibility of Stellar Gyrochronology,” ApJ 586, 464 .
  15. Barnes, S. 2007, “Ages for Illustrative Field Stars Using Gyrochronology: Viability, Limitations and Error” ApJ, 669, 1167 .
  16. Barnes, S. 2010, “A Simple Nonlinear Model for the Rotation of Main Sequence Cool Stars I. Introduction: Implications for Gyrochronology and Color-Period Diagrams,” ApJ 722 222 .
  17. Barnes, S., Kim, Y. 2010, “Angular Momentum Loss from Cool Stars: An Empirical Expression and Connection to Stellar Activity,” ApJ 721 675 .
  18. Barnes, S., Weingrill, J., Fritzewski, D., Strass Meier, K., Platais, I. 2016, “Rotation Periods for Cool Stars in the 4 Gyr Old Cluster M67, the Solar-Stellar Connection, and the Applicability of Gyrochronology to at least Solar Age,” AJ 823, 16 .
  19. Basri, G., Nguyen, H. 2018, “Double Dipping: A New Relation between Stellar Rotation and Starspot Activity,” ApJ 863, 190-201 .
  20. Bayo, A., Rodrigo, C., Barrado Y Navascues, D., Solano, E, Gutierrez, R., Morales Calderon, M., Allard, F. 2008, “VOSA: Virtual Observatory SED Analyzer. An Application to the Collinder 69 Open Cluster,” A&A 492, A277 .
  21. Belokurov, V., Penoyre, Z, Oh, S., Iorio, G., Hodgkin, S., Evans, N., Everall, A., Koposov, S., tout, C. Issard, R., Clarke, C., Brown, A. 2020, “Unresolved Stellar Companions with Gaia DR2 Astrometry,” MNRAS 496, 1922 .
  22. Bergeron, P. et al., “The Montreal White Dwarf Database: A Tool for the Community,” https://www.montrealwhitedwarfdatabase.org .
  23. Bergeron, P., Saumon, D., Wesemael, F. 1995, “New Model Atmospheres for Very Cool White Dwarfs with Mixed H/He and Pure He Compositions,” ApJ 443, 764 .
  24. Bischoff-Kim, A., Montgomery, M. 2018, “WDEC: A Code for Modeling White Dwarf Structure and Pulsations,” AJ 155, 187 .
  25. Bressan, A., Marigo, P., Girardi, L., Salasnich, B., Dal Cero, C., Rubele, S., Nanni, A. 2012, “PARSEC: stellar tracks and isochrones with the PAdova and TRieste Stellar Evolution Code,” MNRAS 427, 127 .
  26. Buzasi, D. 2018, “Connecting the Past to the Future: Age-Rotation-Activity Studies from Kepler to TESS,” 20th Cambridge Workshop on Cool Stars, Stellar Systems and the Sun, 66 .
  27. Buzasi, D., Carboneau, L., Hessler, C., Lezcano, A., Preston, H. 2016a, “Serendipitous Science from the K2 Mission,” Proceedings of the IAU, Volume 29B, 2016, 67318 .
  28. Buzasi, D., Lezcano, A., Preston, H. 2016, “Rotation, Activity and Stellar Obliquities in a Large Uniform Sample of Kepler Solar Analogs,” J. Space Weather Space Climate, 6, 38. .
  29. Buzasi, D., Lezcano, A., Preston, H. 2016, “Rotation, Activity and Stellar Obliquities in a Large Uniform Sample of Kepler Solar Analogs,” J. Space Weather Space Climate, 6, 38. .
  30. Cacciari, C., Pancino, E., Bellazzini, M., 2016, “Gaia,” Astr. Nach. 337, 899 .
  31. Carroll, B. W., & Ostlie, D. A. (2017). An Introduction to Modern Astrophysics. Cambridge university press. .
  32. Catalán, S., Isern, J., García-Berro, E., Ribas, I., Allende Prieto, C., Bonanos, A., 2008a, “The Initial-Final Mass Relationship from White Dwarfs in Common Proper Motion Pairs”, A&A, 477, 213 .
  33. Claytor, Z., van Saders, J., Santos, A., Garcia, R., Mathur, S., Tayar, J., Pinsonneault, Shetrone, M. 2020, “Chemical Evolution in the Milky Way: Rotation-Based Ages for APOGEE-Kepler Cool Dwarf Stars,” ApJ 888, 43 .
  34. Cummings, J., Kalirai, J., Tremblay, P-E., Ramirez-Ruiz, E. 2016, ‘Two Massive White Dwarfs from NGC 2323 and the Initial-Final Mass Relation for Progenitors of 4 to 6.5 M¤,” ApJ 818, 84 .
  35. Curtis, J., Agueros, M., Douglas, S., Meibom, S. 2019, “A Temporary Epoch of Stalled Spin-Down for Low-Mass Stars: Insights from NGC 6811 with Gaia & Kepler,” ApJ 879, 49 .
  36. Davenport, J., Covey, K. 2018, “Rotating Stars from Kepler Observed with Gaia DR2,” ApJ 868, 151 .
  37. Dhital, S., Oswalt, T., Muirhead, P., Weisenburger, K., Barnes, S., Janes, K., West, A., Covey, K., Meibom, S, Mizusawa, T. 2013, “A Gyrochronology and Microvariability Survey of the Milky Way’s Older Stars Using Kepler’s Two-Wheels Program,” 2013arXiv1309.1172D .
  38. Dhital, S., West, A., Stassun, K., Schluns, K., Massey, A. 2015, “SLoWPoKES-II: 100,000 Wide Binaries Identified in SDSS without Proper Motions,” AJ 150, 18 .
  39. Dotson, J., Colon, K., Barentsen, G., Hedges, C., Barclay, T. 2020, “K2 Targets Observed in TESS Cycles 1-3,” RNAAS 4, 240 .
  40. El-Badry, K., Rix, H-W. 2018, “Imprints of White Dwarf Recoil in the Separation Distribution of Gaia Wide Binaries,” MNRAS 480, 4884 .
  41. El-Badry, K., Rix, H-W. Weisz, D. 2018, “An Empirical Measurement of the Initial-Final Mass Relation with Gaia White Dwarfs,” ApJL 860, L17 .
  42. El-Badry, K., Rix, H-W., Heintz, T. 2021, “A Million Binaries from Gaia eDR3: Sample Selection and Validation of Gaia Parallax Uncertainties,” MNRAS preprint, https://arxiv.org/pdf/2101.05282.pdf .
  43. Engle, S., Guinan, E. 2018, “The Rotation-Age Relationship of M Dwarfs: A Progress Report of the Living with a Red Dwarf Program,” RNAAS 2 .
  44. Epstein, C., Pinsonneault, M. 2018, “How Good a Clock is Rotation? The Stellar Rotation Mass-Age Relationship for Old Field Stars,” arXiv:1203.1618v2 .
  45. Epstein, C., Pinsonneault, M. 2018, “How Good a Clock is Rotation? The Stellar Rotation Mass-Age Relationship for Old Field Stars,” arXiv:1203.1618v2 .
  46. Feigelson, E., Babu, G. 2012, “Modern Statistical Methods for Astronomy with R Applications,” Cambridge U. Press, Ch. 3 .
  47. Flewelling, H., Magnier, E., Chambers, K. et al. 2016, “The Pan-STARRS1 Database and Data Products,” arXiv:1612.05243 .
  48. Fouesneau, M., Rix, H-W, von Hippel, T., Hogg, D. Tian, H. 2019, “Precise Ages of Field Stars from White Dwarf Companions,” ApJ 870, 9 .
  49. Gafeira, R., Fonte, C., Pais, M., Fernandes, J., 2014, “Temporal Evolution of Sunspot Areas and Extension of Related Plasma Flows,” Solar Physics 289, 1531 .
  50. Gaia Collaboration 2018, “Gaia Data Release 2. Summary of the Contents and Survey Properties,” A&A 616, A1 .
  51. García-Berro, E., Oswalt, T. 2016, “The White Dwarf Luminosity Function,” New Astron. Rev. 72, 741 .
  52. Garner, R. (2016, July 15). About TESS. NASA. Retrieved December 30, 2022, from https://www.nasa.gov/content/about-tess .
  53. Garraffo, C., Drake, J., Dotter, A., Choi, J., Burke, D., Moschu, S., Alvarado-Gomez, J., Kashyap, V., Cohen, O. 2018, “The Revolution Revolution: Magnetic Morphology Driven Spin-Down,” ApJ 862, 90 .
  54. Genest-Beaulieu, C., Bergeron, P. 2019, “A Photometric and Spectroscopic Investigation of the DB White Dwarf Population Using SDSS and Gaia Data,” ApJ 882, 106 .
  55. Géron, Aurélien. (2023). Hands-on Machine Learning with Scikit-Learn, Keras and Tensorflow: Concepts, tools, and techniques to build Intelligent Systems. O'Reilly. .
  56. Gilliland, R. et al. (17 coauthors) 2011, “Kepler Mission Stellar and Instrument Noise Properties,” ApJS 197, 6-25 .
  57. Godoy-Rivera, D., Chaname, J. 2018, “On the Identification of Wide Binaries in the Kepler Field,” MNRAS 479, 4440-4469 .
  58. Gonzalez, G. 2016, “A Revised Gyro-Age for M67 from Kepler/K2-Campaign-5 Light Curves,” MNRAS 463, 3513 .
  59. Gruner, D., Barnes, S. 2020, “Rotation Periods for Cool Stars in the Open Cluster Ruprecht 147 (NGC 6774)”, A&A 644, A16 .
  60. Hall, O., Davies, G., van Saders, J., Nielsen, M., Lund, M., Chaplin, W., Garcia, R., Amard, L., Breimann, A., Khan, S., See, V., Tayar, J. 2021, “Weakened Magnetic Braking Supported by Asteroseismic Rotation Rates of Kepler Dwarfs,” Nature Astronomy, https://doi.org/10.1038/s41550-021-01335-x17 .
  61. Hamada, T, Salpeter, E. 1961, “Models for Zero-Temperature Stars,” ApJ 134 683 .
  62. Hartmann, Z., Lepine, S. 2020, “The SUPERWIDE Catalog: A Catalog of 99,203 Wide Binaries Found in Gaia and Supplemented by the SUPERBLINK High Proper Motion Catalog,” ApJS 247, 66 .
  63. Henry, T. 2012, “RECONS Census of Objects Nearer than 10 Parsecs,”http://www.recons.org/census.posted.htm .
  64. Howell, S. et al. (19 coauthors) 2014, “The K2 Mission: Characterization and Early Results,” PASP 126, 398 .
  65. Janes, K. 2017, “Rotation Periods of Wide Binaries in the Kepler Field,” ApJ 835, 75-86 .
  66. Janes, K. 2020, “Gyrochronology of Wide Binaries in the Kepler Field,” Proc. Thinkshop 16: The Rotation Periods of Cool Stars, Potsdam, Germany 23-26 Sept. 2019 priv. comm. See also https://ui.adsabs.harvard.edu/abs/2019AAS...23325936J/abstract .
  67. Jimenez-Esteban, F., Solano, E., Rodrigo, C. 2019, “A Catalog of Wide Binary & Multiple Systems of Bright Stars from Gaia-DR2 and the Virtual Observatory,” MNRAS 157, 78 .
  68. Johnson, L., Norris, C., Unruh, Y., Solanki, S., Krivova, N., Witzke, V., Shapiro, A. 2021, “Forward Modeling of Kepler-Based Variability Due to Faculae and Spots,” MNRAS, preprint .
  69. Johnson, M. (2015, April 14). Mission overview. NASA. Retrieved December 30, 2022, from https://www.nasa.gov/mission_pages/kepler/overview/index.html .
  70. Johnson, M. (2015, March 31). Kepler and K2. NASA. Retrieved December 30, 2022, from https://www.nasa.gov/mission_pages/kepler/main/index.html .
  71. Joyce, S., Barstow, M., Caswell, S., Burleigh, M., Holberg, J., Bond, H. 2018, “Testing the white dwarf mass-radius relation and comparing optical and far-UV spectroscopic results with Gaia DR2, HST, and FUSE,” MNRAS 479, 1612 21 .
  72. Kalirai, J., Hansen, B., Kelson, D., Reitzel, D., Rich, M., Richer, H. 2008, “The Initial-Final Mass Relation: Direct Constraints at the Low-Mass End,” ApJ 676, 594 .
  73. Karoff, C., Metcalfe, T., Santos, A., Montet, B., Isaacson, H., Witzke, V., Shapiro, A., Mathur, S., Davies, G., Lund, M., Garcia, R., Brun, A., Salabert, D. Avelino, P., van Saders, J., Egeland, R., Cunha, M., Campante, T. Chaplin, W., Krivova, N., Solani, S., Stritzinger, M., Knudsen, M. 2018, “The Influence of Metallicity on Stellar Differential Rotation and Magnetic Activity,” ApJ 852, 46 .
  74. Keel, W., Oswalt, T., Mack, P., Henson, G., Hillwig, T., Batcheldor, D., Berrington, R., De Pree, C., Hartmann, D., Leake, M., Licandro, J., Murphy, B., Webb, J., Wood, M. 2017, “The Remote Observatories of the Southeastern Association for Research in Astronomy (SARA),” PAP 129, 015002 24 .
  75. Kepler S., Bradley P. 1995, “Structure and Evolution of White Dwarfs,” Baltic Astron. 4, 166 .
  76. Kepler/K2 mission home page: https://archive.stsci.edu/missions-and-data/kepler .
  77. Kilkenny, D., O’Donoghue. D., Koen, C., Lynas-Gray, A. E., Van Wyk, F. 1999, “The EC 14026 Stars – X. A Multi-Site Campaign on the sdBV Star PG 1605+072,” MNRAS, 285, 640-644 .
  78. Kitchatinov, L., Nepomnyashchikh, A. 2017, “How Supercritical are Stellar Dynamos, or Why Do Old Main-Sequence Dwarfs Not Obey Gyrochronology?” MNRAS 470, 3124 .
  79. Kolmogorov, A., 1933, “Sulla Determiniazione Empirical di Una Legged di Distribution,” G. Its. Ital. Attuari. 4, 83-91 .
  80. Kunder, A. (54 coauthors) 2017, “Radial Velocity Experiment (RAVE): Fifth Data Release,” AJ 153, 75 .
  81. Lanzafame, A., Distefano, E., Barnes, S., Spada, F. 2019, “Evidence of New Magnetic Transitions in Late-type Dwarfs from Gaia DR2,” ApJ 877 157 20 .
  82. Law, N., Dhital, S., Kraus, A., Stassun, K., West, A. 2010, “The High-Order Multiplicity of Unusually Wide M Dwarf Binaries: Eleven New Triple and Quadruple Systems,” ApJ 720, 1727-1737 .
  83. Lepine, S. 2005, “New High Proper Motion Stars from the Digitized Sky Survey. III. Stars with Proper Motions 0.45" < µ < 2.0" yr-1 South of Declination -30°,” AJ 130, 1247 .
  84. Lepine, S., Gaidos, E. 2011, “An All-sky Catalog of Bright M Dwarfs,” AJ 142, 138 .
  85. Lindegren, L., Hernandez, J., Bombrun, A., et al. 2018, “Gaia Data Release 2. The Astrometric Solution,” A&A 616, A2 .
  86. Lu, Y., Angus, R., Curtis, J., David, T., Kiman, R. 2021, “Gyro-Kinematic Ages for Around 30,000 Kepler Stars,” AJ 161, 189 .
  87. Luger, R., Agol, E., Kruse, E., Barnes, R., Becker, A., Foreman-Mackey, D., & Deming, D. 2016, “EVEREST: Pixel Level Decorrelation of K2 Light Curves,” AJ 152, 100 .
  88. Luo, A., et al. (>100 coauthors) 2015, “The First Data Release (DR1) of the LAMOST Regular Survey,” RAA, 15, 1095 22 .
  89. Majewski, S., Schiavon, R., Frinchaboy, P., et al. 2017, “The Apache Point Observatory Galactic Evolution Experiment (APOGEE),” AJ 154, 94 .
  90. Makarov, V., Zacharias, N., Hennessy, G. 2008, “Common Proper Motion Companions to Nearby Stars: Ages and Evolution,” ApJ 687, 566-578 .
  91. Mamajek, E., Hillenbrand, L. 2008, “Improved Age Estimation for Solar-Type Dwarfs Using Activity-Rotation Diagnostics,” ApJ 687, 1264 .
  92. Mann, H., Whitney, D. 1947, “On a Test of Whether One of Two Random Variables is Stochastically Larger than the Other,” Ann. Math. Stat. 18, 50-60 .
  93. Marigo, P., Girardi, L. Bressan, A., Rosenfield, P., Aringer, B., Chen, Y., Dussin, M., Nanni, A., Pastorelli G., Rodriques, T., Trabucchi, M., Bladh, S., Dalcontaon, J., Groenewegen, M., Montalban, J., Wood, P. 2017, “A New Generation of PARSEC COLIBRI Stellar Isochrones Including the TP-AGB Phase,” ApJ 835, 77 .
  94. Mason, B., Wycoff, G., Hartkopf, W., Geoffrey, D., Worley, C. 2001, “The 2001 USNO Double Star CD-ROM I. The Washington Double Star Catalog,” AJ 122, 3466 .
  95. McQuillan, A., Aigrain, S., Mazeh, T. 2013, “Measuring the rotation period distribution of field M dwarfs with Kepler,” MNRAS 432, 1203 .
  96. McQuillan, A., Mazeh, T., Aigrain, S. 2014, “Rotation Periods of 34,030 Kepler Main Sequence Stars: the Full Autocorrelation Sample,” ApJS 211, 24. .
  97. Meibom, S. et al. (21 coauthors) 2011b, “The Kepler Cluster Study: Stellar Rotation in NGC 6811,” ApJ 733 L9 .
  98. Meibom, S., Barnes, S., Platais, I., Gilliland, R., Latham, D., Mathieu, R. 2015, “A Spin Down Clock for Cool Stars from Observations of a 2.5-billion-year-old Cluster,” Nature 517, L589 .
  99. Meibom, S., Mathieu, R. 2009, “Stellar Rotation in M35: Mass-Period Relations, Spin-Down Rates and Gyrochronology,” ApJ 695, 679 .
  100. Meibom, S., Mathieu, R., Stassun, K., Liebesny, P., Saar, S. 2011a, “The Color-Period Diagram and Stellar Rotational Evolution—New Rotation Period Measurements in the Open Cluster M34,” ApJ 733 115 .
  101. Meng, X., Chen, X., Han, Z. 2008, “Initial-Final Mass Relationship for Stars of Different Metallicities,” A&A 487, 625-635 .
  102. Metcalfe, T. et al. 2020, “The Evolution of Rotation and Magnetic Activity in 94 Aqr Aa from Asteroseismology with TESS,” ApJ 900, 154 .
  103. Metcalfe, T., Egeland, R. 2019, “Understanding the Limitations of Gyrochronology for Old Field Stars,” ApJ 871, 39 .
  104. Metcalfe, T., Egeland, R., van Saders, J. 2016, “Stellar Evidence that the Solar Dynamo May Be in Transition,” ApJL 826, L2 .
  105. Metcalfe, T., van Saders, J., 2019, “Magnetic Evolution and the Disappearance of Sun-Like Activity Cycles. Sol Phys 292, 126 .
  106. Michalik, D., Lindegren, L., Hobbs, D. 2015, “The Tycho-Gaia Astrometric Solution. How to Get 2.5 Million Parallaxes with Less than One Year of Gaia Data,” A&A 574, A115 .
  107. Moss, A., von Hippel, T., Robinson E., El-Badry, K., Stenning, D., van Dyk, David, Fouesneau, M., Bailer-Jones, C., Jeffery, E., Sargent, J., Kloc, I., Moticska, N. 2020, “Ages of Common Proper Motion Binaries: The Confluence of White Dwarfs, Gaia Trigonometric Parallaxes and spectroscopic Metallicities,” preprint, priv. comm. .
  108. NASA Astrophysical Data Service: https://ui.adsabs.harvard.edu/classic-form .
  109. NASA. (n.d.). Kepler - universe missions - NASA Jet Propulsion Laboratory. NASA. Retrieved December 30, 2022, from https://www.jpl.nasa.gov/missions/kepler .
  110. Nielsen, M., Gizon, L., Schunker, H., Karoff, C. 2013, “Rotation periods of 12 000 main sequence Kepler stars: Dependence on Stellar Spectral Type and Comparison with v sin i Observations,” A&A 557, L10 .
  111. Oelkers, R., Stassun, K., Dhital, S. 2017, “Gaia Assorted Mass Binaries Long Excluded from SLoWPoKES (GAMBLES): Identifying Ultra-wide Binary Pairs with Components of Diverse Mass,” AJ 153, 259. .
  112. Oh, S., Price-Whelan, A., Hogg, D., Morton, T, Spergel, D. 2017, “Comoving Stars in Gaia DR1: An Abundance of Very Wide Separation Comoving Pairs,” AJ 153, 257 .
  113. Oswalt, T. 2015, “Gyrochronology of Stars in Wide Binaries in the Kepler K2 Fields,” NASA grant NNX15AV60G 19 .
  114. Otani, T., Oswalt, T., Lynas-Gray, A.E., Kilkenny, D. Koen, C., Amaral, M., Jordan, R. 2018, “Photometric Results and Orbital Characteristics of a Subdwarf B Star and the F-type Main Sequence Star Binary System, EC 20117-4014,” 2018, ApJ 859, 2-15 .
  115. Otani, T., Oswalt, T., Majewski, P., Jordan, R., Amaral, M., Moss, A. 2017 “An Additional Pulsation Mode (7.35 mHz) and Pulsations Timing Variations of PG 1613+426”, OA 26, 270 .
  116. Otani, T., von Hippel, T., Buzasi, D., Oswalt, T., Stone-Martinez, A. 2021, “Gyrochronology Model Evaluation Method,” submitted to ApJ, preprint available at: https://arxiv.org/abs/2105.07266. .
  117. Pallavicini, R., Golub, L., Rosner, R., Vaiana, G., Ayres, T., Linsky, J. 1981, “Relations among Stellar X-ray Emission Observed from Einstein, Stellar Rotation and Bolometric Luminosity,” ApJ 248, 279 .
  118. Pallavicini, R., Golub, L., Rosner, R., Vaiana, G., Ayres, T., Linsky, J. 1981, “Relations among Stellar X-ray Emission Observed from Einstein, Stellar Rotation and Bolometric Luminosity,” ApJ 248, 279 .
  119. Proposal for grants NASA and NSF grants NSF AST1910396 and NASA 80NSSC22K0622 .
  120. Qiu, D., Tian, H-J., Wang, X-D., Nie, J-L., von Hippel, T. Liu, G-C., Fouesneau, M., Rix, H-W. 2021, “Precise Ages of Field Stars from White Dwarf Companions in Gaia DR2,” ApJS 253, 58 .
  121. Rebassa-Mansergas, Anguiano, B, García-Berro, E., Freeman, K., Cojocaru, R., Manser, C., Pala, A, Gansicke, B., Liu, X-W. 2016, “The Age-Metallicity Relation in the Solar Neighborhood from a Pilot Sample of White Dwarf – Main Sequence Binaries,” MNRAS 463, 1137 .
  122. Reinhold, T., Hekker, S. 2020, “Stellar rotation periods from K2 Campaigns 0-18. Evidence for rotation period bimodality and simultaneous variability decrease,” A&A 635 A43 .
  123. Romero, A., Campos, F., Kepler, S. 2015, “The Initial-Final Mass Relation and its Dependence with Metallicity,” ASPC 493, 3531-354. .
  124. Ryden, B. S., & Peterson, B. M. (2010). Foundations of Astrophysics. Cambridge University Press. .
  125. Salaris, M., Serenelli, A., Weiss, A., Miller-Bertolami, M, 2009, “Semi-empirical White Dwarf Initial-Final Mass Relationships: A Thorough Analysis of Systematic Uncertainties Due to Stellar Evolution Models,” ApJ 692, 1013 .
  126. Santos, A., Garcia, R., Mathur, S., Bugnet, L., van Saders, J., Metcalfe, T., Simonian, G., Pinsonneault, M. 2019, “Surface Rotation and Photometric Activity for Kepler Targets I. M and K Main-sequence Stars,” ApJS 244 21 .
  127. Shakarji, C., 1998, “Least-Squares Fitting Algorithms of the NIST Algorithm Testing system,” JRNIST 103, 633 .
  128. Shapiro, A., Amazo-Gomez, E., Krivova, N., Solanki, S. 2020, “Inflection Point in the Power Spectrum of Stellar Brightness Variations. I. The Model,” A&A, 633, A32 .
  129. Si, S., van Dyk, D., von Hippel, T., Robinson, E., Jeffery, E., Stenning, D. 2018, “Bayesian Hierarchical Modelling of Initial-Final Mass Relations Across Star Clusters,” MNRAS 480, 1300 .
  130. Skumanich, A. 1972, “Time Scales for Ca II Emission Decay, Rotational Braking, and Lithium Depletion,” ApJ 171, 565 .
  131. Skumanich, A. 1972, “Time Scales for Ca II Emission Decay, Rotational Braking, and Lithium Depletion,” ApJ 171, 565 .
  132. Smirnov, N. 1948, “Table for Estimating the Goodness of Fit of Empirical Distributions,” Ann. Math. Stat. 19, 279-281 .
  133. Soderblom, D.R. 1985, “A Survey Chromospheric Emission and Rotation Among Solar-Type Stars in the Solar Neighborhood,” AJ 90, 2103 .
  134. Soderblom, D.R. 1985, “A Survey Chromospheric Emission and Rotation Among Solar-Type Stars in the Solar Neighborhood,” AJ 90, 2103 .
  135. Soderblom, D.R., 2010, “The Age of Stars,” ARAA, 48, 581 .
  136. Soderblom, D.R., 2010, “The Age of Stars,” ARAA, 48, 581 .
  137. Spada, F., Lanzafame, A. 2020, “Competing Effect of Wind Braking and Interior Coupling in the Rotational Evolution of Solar-Like Stars,” A&A 363, A76 .
  138. Stenning, D., Wagner-Kaiser, R., Robinson, E., van Dyk, D., von Hippel, T. Sarajedini, A., Stein, N. 2016, “Bayesian Analysis of Two Stellar Populations in Galactic Globular Clusters. I. Statistical and Computational Methods,” ApJ 826, 41 .
  139. Stone-Martinez, A., Villarroel, G., Majewski, P., Otani, T., Oswalt, T., McNaughton, A. 2018, “Gyrochronology of Wide Binaries in the Kepler K2,” BAAS 231, 450.08 .
  140. TESS mission home page: https://archive.stsci.edu/missions-and-data/tess .
  141. Tonry, J., Stubbs, C., Lykke, K., Doherty, P., Shivvers, I., Burgett, W., Changers, K., Hodapp, K., Kaiser, N., Kudtritzki, R., Magnier, E., Morgan, J., Price, P., Wainscoat, R. 2012, “The Pan-STARRS1 Photometric System,” ApJ 750, 99 .
  142. Torres, S., Garcia-Berro, E. 2016, “The White Dwarf Population within 40 pc of the Sun,” A&A 588, A35 Holberg, J., Oswalt, T., Sion, E., McCook, G. 2016, “The 25 Parsec Local White Dwarf Population,” MNRAS 462, 2295-2318 .
  143. Tremblay, P-E., Cukanovaite, E., Gentile-Fusillo, N., Cunningham, T., Hollands, M. 2019, “Fundamental parameter accuracy of DA and DB white dwarfs in Gaia Data Release 2,” MNRAS 482 5222 .
  144. Tremblay, P-E., Fontaine, G., Gentile-Fusillo, N., Dunlap, B., Gansicke, B., Hollands, M., Hermes, J., Marsh, T., Cukanovaite, E., Cunningham, T. 2019, “Core Crystallization and Pile up in the Cooling Sequence of Evolving White Dwarfs,” Nature 565, 202. .
  145. Twicken, J., Chandrasekharan, H., Jenkins, J., Gunter, J., Girouard, F., Klaus, T. 2010, “Presearch data conditioning in the Kepler Science Operations Center Pipeline,” SPIE, 7740, 1 .
  146. Van Cleve, J., Howell, S., Smith, J., Clarke, B., Thompson, S., Bryson, S., Lund, M., Handberg, R., & Chaplin, W. 2016, “That's How We Roll: The NASA K2 Mission Science Products and Their Performance Metrics,” PASP 128, 965, 075002 .
  147. Vanderburg, A., Johnson, J. 2014, “A Technique for Extracting Highly Precise Photometry for the Two-Wheeled Kepler Mission,” PASP 126, 948 .
  148. VizieR catalogue access tool: http://vizier.u-strasbg.fr/viz-bin/VizieR The original description of the VizieR service was published in A&AS 143, 23 .
  149. Weidemann, V. 2000, “Revision of the Initial-to-Final Mass Relation,” A&A 363, 647 .
  150. Wilcoxon, F. 1945, “Individual Comparisons by Ranking Methods,” Biometr. Bull. 1 (6) 80-83 .
  151. Williams, K., Bolte, M., Koester, D. 2009, “Probing the Lower Mass Limit for Supernova Progenitors and the High-Mass End of the Initial-Final Mass Relation from White Dwarfs in the Open Cluster M35 (NGC 2168),” ApJ 693, 355 .
  152. Willson, L.A., Struck, C., Wang, Q., Kawaler, S. 2008, “Mass Loss—Formula, Recipe, Prescription or Algorithm?” Physica Scripta, 133, 014008 23 .
  153. Willson, L.A., Wang, Q. 2011, priv. comm. .
  154. Wright, J., Marcy, G., Howard, A., Johnson, J., Morton, T., Fischer, D. 2012, “The Frequency of Hot Jupiters Orbiting Nearby Solar-Type Stars,” ApJ 753, 160-165 .
  155. Zacharias, N. et al. (16 co-authors) 2015, “The First U.S. Naval Observatory Robotic Astrometric Telescope Catalog,” AJ 150, 101-114 .
  156. Zhao, J.K., Oswalt, T.D., Willson, L.A., Wang, Q., Zhao, G., 2012b, “The Initial-Final Mass Relation among White Dwarfs in Wide Binaries,” ApJ 746, 144 .
  157. ielsen, M., Gizon, L., Schunker, H., Karoff, C. 2013, “Rotation periods of 12 000 main[1]sequence Kepler stars: Dependence on Stellar Spectral Type and Comparison with v sin i Observations,” A&A 557, L10 .
  158. illan, A., Mazeh, T., Aigrain, S. 2014, “Rotation Periods of 34,030 Kepler Main[1]Sequence Stars: the Full Autocorrelation Sample,” ApJS 211, 24 .
  159. van Dyk, D., Degennaro, S., Stein, N., Jefferys, W., von Hippel, T. 2009, “Statistical Analysis of Stellar Evolution,” Ann. Appl. Stat. 3, 117 .
  160. van Saders, J. (n.d.). Research. Jennifer van Saders. Retrieved December 30, 2022, from https://home.ifa.hawaii.edu/users/jvsaders/#research .
  161. van Saders, J., Ceillier, T., Metcalfe, T., Aguirre, V., Pinsonneault, M., García, R., Mathur, S., Davies, G. 2016, “Weakened Magnetic Braking as the Origin of Anomalously Rapid Rotation in Old Field Stars,” Nature 529 181 .
  162. van Saders, J., Ceillier, T., Metcalfe, T., Aguirre, V., Pinsonneault, M., García, R., Mathur, S., Davies, G. 2016, “Weakened Magnetic Braking as the Origin of Anomalously Rapid Rotation in Old Field Stars,” Nature 529 181  .
  163. van Saders, J., Pinsonneault, M., Barbieri, M. 2019, “Forward Modeling of the Kepler Stellar Rotation Period Distribution: Interpreting Periods from Mixed and Biased Stellar Populations,” ApJ 872, 128 .
  164. von Essen, C., Stefansson, G., Mallonn, M., Pursimo, T., Djupvik, A., Mahadevan, S., Kjeldsen, H., Freudenthal, J., Dreizler, S. 2019, “First Light of Engineered Diffusers at the Nordic Optical Telescope Reveal Time Variability in the Optical Eclipse Depth of WASP 12B,” A&A preprint, arXiv:1904.05362v1 .
  165. von Hippel, T., Jefferys, W., Scott, J., Stein, N., Winget, D., De Gennaro, S., Dam, A., Jeffery, E. 2006, “Inverting Color-Magnitude Diagrams to Access Precise Star Cluster Parameters: A Bayesian Approach,” ApJ 645, 1436 .

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