Phillips R J, Zuber M T, Solomon S C, Golombek M P, Jakosky B M, Banerdt W B, Smith D E, Williams R M, Hynek B M, Aharonson O, Hauck S A
McDonnell Center for the Space Sciences and Department of Earth and Planetary Sciences, Washington University, St. Louis, MO 63130, USA.
Science. 2001 Mar 30;291(5513):2587-91. doi: 10.1126/science.1058701. Epub 2001 Mar 15.
Loading of the lithosphere of Mars by the Tharsis rise explains much of the global shape and long-wavelength gravity field of the planet, including a ring of negative gravity anomalies and a topographic trough around Tharsis, as well as gravity anomaly and topographic highs centered in Arabia Terra and extending northward toward Utopia. The Tharsis-induced trough and antipodal high were largely in place by the end of the Noachian Epoch and exerted control on the location and orientation of valley networks. The release of carbon dioxide and water accompanying the emplacement of approximately 3 x 10(8) cubic kilometers of Tharsis magmas may have sustained a warmer climate than at present, enabling the formation of ancient valley networks and fluvial landscape denudation in and adjacent to the large-scale trough.
塔尔西斯隆起对火星岩石圈的加载解释了该行星的许多全球形状和长波重力场特征,包括围绕塔尔西斯的负重力异常环和地形低谷,以及以阿拉伯高地为中心并向北延伸至乌托邦的重力异常和地形高点。由塔尔西斯隆起引起的低谷和对映高点在诺亚纪末期基本就位,并对山谷网络的位置和方向产生了控制作用。伴随约3×10⁸ 立方千米的塔尔西斯岩浆侵入而释放的二氧化碳和水,可能维持了比目前更温暖的气候,使得在大规模低谷及其附近能够形成古老的山谷网络和河流地貌剥蚀。