Are Hyperion and Phoebe Linked to Iapetus?

Icarus

Volumn 146, Issue 1, 2000, Pages 125-132

  Jarvis, Kandy S ^a   Vilas, Faith ^b   Larson, Stephen M ^c   Gaffey, Michael J ^d  

^a LOCKHEED MARTIN   (United States)

^b NASA JOHNSON SPACE CENTER   (United States)

^c UNIVERSITY OF ARIZONA   (United States)

^d RENSSELAER POLYTECHNIC INSTITUTE   (United States)

Author keywords

Irregular; Satellites; Saturn; Spectrophotometry; Surfaces

Indexed keywords

EID: 0000501340     PISSN: 00191035     EISSN: None     Source Type: Journal    
DOI: 10.1006/icar.2000.6371     Document Type: Article

References (37)

1. Bell J. F., Cruikshank D. P., Gaffey M. J. The composition and origin of the Iapetus dark material. Icarus. 61:1985;192-207.
2. Brown M. Infrared spectroscopy of Centaurs and irregular satellites. Bull. Am. Astron. Soc. 30:1998;1112.
3. 26. Science. 280:1998;1430-1432.
4. Buratti B. J., Mosher J. A. The dark side of Iapetus: Additional evidence for an exogenous origin. Icarus. 115:1995;219-227.
5. Burns J. A., Lamy P. L., Soter S. Radiation forces on small particles in the Solar System. Icarus. 40:1979;1-48.
6. Clark R. N., Brown R. H., Owensby P. D., Steele A. Saturn's satellites: Near-infrared spectrophotometry (0.62-2.5 μm) of the leading and trailing sides and compositional implications. Icarus. 58:1984;265-281.
7. Cruikshank D. P., Brown R. H. Surface composition and radius of Hyperion. Icarus. 50:1982;82-87.
8. Cruikshank, D. P., J. Ververka, and L. A. Lebofsky1984. Satellites of Saturn: Optical properties. In SaturnT. Gehrels and M. S. Matthews, Eds., pp. 640-667. Univ. of Arizona Press, Tucson.
9. Degewij J., Cruikshank D. P., Hartmann W. K. Near-infrared colorimetry of J6 Himalia and S9 Phoebe: A summary of 0.3 to 2.2 μm reflectances. Icarus. 44:1980;541-547.
10. Fink U., Larson H. P., Gautier T. N. III, Treffers R. R. Infrared spectra of the satellites of Saturn: Identification of water on Iapetus, Rhea, Dione, and Tethys. Astrophys. J. 207:1976;L63-L67.
11. Fitzsimmons A., Dahlgren M., Lagerkvist C.-I., Magnusson P., Williams I. P. A spectroscopic survey of D-type asteroids. Astron. Astrophys. 282:1994;634-642.
12. French L. M. Rotation properties of four L5 Trojan asteroids from CCD photometry. Icarus. 72:1987;325-341.
13. Gradie J., Tedesco E. F. The compositional structure of the asteroid belt. Science. 216:1982;1405-1407.
14. Gradie J., Veverka J. The composition of the Trojan asteroids. Nature. 283:1980;840-842.
15. 2O ice. J. Geophys. Res. 103:1998;25809-25822.
16. Hapke B. Bidirectional reflectance spectroscopy, 4: The extinction coefficient and the opposition effect. Icarus. 67:1986;264-289.
17. Hamilton D. P. Iapetus: 4.5 billion year of contamination by Phoebe dust. Bull. Am. Astron. Soc. 29:1997;1010.
18. Lebofsky L. A., Rieke G. H., Lebofsky M. J. Infrared reflectance spectra of Hyperion. Icarus. 46:1981;169-174.
19. Matthews R. A. J. The darkening of Iapetus and the origin of Hyperion. Q. J. R. Astron. Soc. 33:1992;253-258.
20. Mustard J. F., Li L., He G. The importance of nonlinear mixture modeling for analysis of lunar multispectral data. Lunar Planet. Sci. Conf. 28th. 1997;995-996.
21. Owen T. C., Cruikshank D. P., Dalle Ore C. M., Geballe T. R., Roush T. L., deBergh C. Detection of water ice on Saturn's satellite Phoebe. Icarus. 139:1999;379-382.
22. Soter, S. 1974, Brightness of Iapetus. Presented at IAU Colloq. 28, Cornell University.
23. Squyres S. W., Buratti B., Veverka J., Sagan C. Voyager photometry of Iapetus. Icarus. 59:1984;426-435.
24. Strazzulla G. Organic material from Phoebe to Iapetus. Icarus. 66:1986;397-400.
25. Tholen D. J., Zellner B. Eight-color photometry of Hyperion, Iapetus, and Phoebe. Icarus. 53:1983;341-347.
26. Thomas P., Veverka J. Hyperion: Analysis of Voyager observations. Icarus. 64:1985;414-424.
27. Thomas P., Black G. J., Nicholson P. D. Hyperion: Rotation, shape, and geology from Voyager images. Icarus. 117:1995;128-148.
28. Thomas P., Veverka J., Morrison D., Davies M., Johnson T. V. Phoebe: Voyager 2 observations. J. Geophys. Res. 88:1983;8736-8742.
29. Vilas F. A cheaper, faster, better way to detect water of hydration on Solar System bodies. Icarus. 111:1994;456-467.
30. Vilas F., McFadden L. A. CCD reflectance spectra of selected asteroids: Presentation and data analysis considerations. Icarus. 100:1992;85-94.
31. Vilas F., Smith B. A. Reflectance spectrophotometry (~0.5-1.0 μm) of outer-belt asteroids: Implications for primitive, organic Solar System material. Icarus. 64:1985;503-516.
32. Vilas F., Hatch E. C., Larson S. M., Sawyer S. R., Gaffey M. J. Ferric iron in primitive asteroids: A 0.43-μm absorption feature. Icarus. 102:1993a;225-231.
33. Vilas F., Jensen E. A., McFadden L. A. Extracting spectral information about 253 Mathilde using the NEAR photometry. Icarus. 129:1997;440-449.
34. Vilas F., Larson S. A., Hatch E. C., Jarvis K. S. CCD reflectance spectra of selected asteroids, II. Low albedo asteroid spectra and data extraction techniques. Icarus. 105:1993b;67-78.
35. Vilas F., Larson S. M., Stockstill K. R., Gaffey M. J. Unraveling the zebra: Clues to the Iapetus dark material composition. Icarus. 124:1996;262-267.
36. Wilson P. D., Sagan C. Spectrophotometry and organic matter on Iapetus, 1: Composition models. J. Geophys. Res. Planets. 100:1995;7531-7537.
37. Wilson P. D., Sagan C. Spectrophotometry and organic matter on Iapetus, 2: Models of interhemispheric asymmetry. Icarus. 122:1996;92-106.