Aqil Tariq , Jianguo Yan , Qingyun Deng , Jean-Pierre Barriot , Kamal Abdelrahman
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After that, we create 2D plots of displacement-length (</span><span><math><mrow><mi>L</mi></mrow></math></span>) for the ridge population in the four Maria and compare the results. A linear fit method derives the <span><math><mrow><msub><mi>D</mi><mrow><mi>max</mi></mrow></msub><mo>/</mo><mi>L</mi></mrow></math></span> ratios (γ) from the <em>D-L</em> data. We calculated the contractional strains in each mare area based on the cap D sub m a. x over cap L data. Moreover, each mare's gravity pattern, mare thickness, and formation age are also presented. The ridges in Mare Imbrium and Mare Serenitatis have a higher γ value (1.83 × 10<sup>−2</sup> and 1.98 × 10<sup>−2</sup>) than the ridges in Mare Fecunditatis and Mare Tranquillitatis, which have γ values of (1.67 × 10<sup>−2</sup> and 1.75 × 10<sup>−2</sup>). Finally, the contractional strains (ε) in Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis are estimated to be 0.23 %, 0.41 %, 0.39 %, and 0.18 % (considering 25° is the fault plane dip <em>θ</em><span>), respectively. The maximum values of the free-air gravity anomalies in Mare Fecunditatis range from −30 to 250 mGal, while minimum gravity anomalies in Mare Serenitatis range from −80 to 140 mGal. Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis have an average thickness of 300 m, 910 m, 652 m, and 760 m, respectively. Furthermore, the Mare Imbrium ridge group is older than the Lunar Wrinkle Ridges in Mare Serenitatis. Mare Tranquillitatis ridge group formation takes longer than Mare Imbrium ridge group formation. Therefore, we believe that it has thicker basaltic units, a longer wrinkle ridge formation time, and higher gravity anomaly than the Mare Imbrium and Mare Serenitatis basins, even though the formation of the Mare Tranquillitatis and Mare Fecunditatis basins occurred earlier.</span></div></div>","PeriodicalId":50850,"journal":{"name":"Advances in Space Research","volume":"74 11","pages":"Pages 6231-6246"},"PeriodicalIF":3.2000,"publicationDate":"2024-12-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Contractional strains and maximum displacement-length ratios of lunar wrinkle ridges in four Maria of basalt\",\"authors\":\"Aqil Tariq , Jianguo Yan , Qingyun Deng , Jean-Pierre Barriot , Kamal Abdelrahman\",\"doi\":\"10.1016/j.asr.2024.05.057\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<div><div><span>Compressional stresses from the basalt<span> basins on the lunar are responsible for the formation of wrinkle ridges in lunar mare basalts. According to the wide angle multispectral camera (WAC) mosaic image, we selected 62, 75, 73, and 58 single wrinkle ridges in Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis, respectively, for this paper. Several topographic profiles near the midpoint of each wrinkle ridge are generated to measure the maximum displacement (</span></span><span><math><mrow><msub><mi>D</mi><mrow><mi>max</mi></mrow></msub></mrow></math></span><span>) and height of the wrinkle ridges using digital elevation model (LOLA) data. After that, we create 2D plots of displacement-length (</span><span><math><mrow><mi>L</mi></mrow></math></span>) for the ridge population in the four Maria and compare the results. A linear fit method derives the <span><math><mrow><msub><mi>D</mi><mrow><mi>max</mi></mrow></msub><mo>/</mo><mi>L</mi></mrow></math></span> ratios (γ) from the <em>D-L</em> data. We calculated the contractional strains in each mare area based on the cap D sub m a. x over cap L data. Moreover, each mare's gravity pattern, mare thickness, and formation age are also presented. The ridges in Mare Imbrium and Mare Serenitatis have a higher γ value (1.83 × 10<sup>−2</sup> and 1.98 × 10<sup>−2</sup>) than the ridges in Mare Fecunditatis and Mare Tranquillitatis, which have γ values of (1.67 × 10<sup>−2</sup> and 1.75 × 10<sup>−2</sup>). Finally, the contractional strains (ε) in Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis are estimated to be 0.23 %, 0.41 %, 0.39 %, and 0.18 % (considering 25° is the fault plane dip <em>θ</em><span>), respectively. The maximum values of the free-air gravity anomalies in Mare Fecunditatis range from −30 to 250 mGal, while minimum gravity anomalies in Mare Serenitatis range from −80 to 140 mGal. 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引用次数: 0
摘要
来自月球玄武岩盆地的压缩应力是月兔玄武岩皱纹脊形成的原因。根据广角多光谱相机(WAC)的镶嵌图像,我们分别在Mare Imbrium、Mare Serenitatis、Mare Fecunditatis和Mare Tranquillitatis选取了62、75、73和58条皱纹脊作为本文的研究对象。利用数字高程模型(LOLA)数据,在每个皱纹脊的中点附近生成若干地形剖面图,以测量皱纹脊的最大位移(Dmax)和高度。之后,我们绘制了四个玛利亚皱纹脊群的位移-长度(L)二维图,并对结果进行了比较。通过线性拟合方法,从 D-L 数据中得出 Dmax/L 比率 (γ)。我们根据帽顶 D sub m a. x over帽顶 L 数据计算了每个母马区的收缩应变。此外,还给出了每个母岩区的重力模式、母岩厚度和形成年龄。Mare Imbrium 和 Mare Serenitatis 海脊的 γ 值(1.83 × 10-2 和 1.98 × 10-2)高于 Mare Fecunditatis 和 Mare Tranquillitatis 海脊的 γ 值(1.67 × 10-2 和 1.75 × 10-2)。最后,Mare Imbrium、Mare Serenitatis、Mare Fecunditatis 和 Mare Tranquillitatis 的收缩应变(ε)估计分别为 0.23 %、0.41 %、0.39 % 和 0.18 %(考虑 25° 为断层面倾角 θ)。Mare Fecunditatis 的自由空气重力异常最大值为 -30 至 250 mGal,而 Mare Serenitatis 的重力异常最小值为 -80 至 140 mGal。Mare Imbrium、Mare Serenitatis、Mare Fecunditatis 和 Mare Tranquillitatis 的平均厚度分别为 300 米、910 米、652 米和 760 米。此外,Mare Imbrium 海脊群比 Mare Serenitatis 的月球皱褶海脊群更古老。Mare Tranquillitatis 海脊群形成的时间比 Mare Imbrium 海脊群形成的时间长。因此,我们认为,尽管 Mare Tranquillitatis 和 Mare Fecunditatis 盆地的形成时间较早,但与 Mare Imbrium 和 Mare Serenitatis 盆地相比,它的玄武岩单元较厚,皱褶脊形成时间较长,重力异常也较高。
Contractional strains and maximum displacement-length ratios of lunar wrinkle ridges in four Maria of basalt
Compressional stresses from the basalt basins on the lunar are responsible for the formation of wrinkle ridges in lunar mare basalts. According to the wide angle multispectral camera (WAC) mosaic image, we selected 62, 75, 73, and 58 single wrinkle ridges in Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis, respectively, for this paper. Several topographic profiles near the midpoint of each wrinkle ridge are generated to measure the maximum displacement () and height of the wrinkle ridges using digital elevation model (LOLA) data. After that, we create 2D plots of displacement-length () for the ridge population in the four Maria and compare the results. A linear fit method derives the ratios (γ) from the D-L data. We calculated the contractional strains in each mare area based on the cap D sub m a. x over cap L data. Moreover, each mare's gravity pattern, mare thickness, and formation age are also presented. The ridges in Mare Imbrium and Mare Serenitatis have a higher γ value (1.83 × 10−2 and 1.98 × 10−2) than the ridges in Mare Fecunditatis and Mare Tranquillitatis, which have γ values of (1.67 × 10−2 and 1.75 × 10−2). Finally, the contractional strains (ε) in Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis are estimated to be 0.23 %, 0.41 %, 0.39 %, and 0.18 % (considering 25° is the fault plane dip θ), respectively. The maximum values of the free-air gravity anomalies in Mare Fecunditatis range from −30 to 250 mGal, while minimum gravity anomalies in Mare Serenitatis range from −80 to 140 mGal. Mare Imbrium, Mare Serenitatis, Mare Fecunditatis, and Mare Tranquillitatis have an average thickness of 300 m, 910 m, 652 m, and 760 m, respectively. Furthermore, the Mare Imbrium ridge group is older than the Lunar Wrinkle Ridges in Mare Serenitatis. Mare Tranquillitatis ridge group formation takes longer than Mare Imbrium ridge group formation. Therefore, we believe that it has thicker basaltic units, a longer wrinkle ridge formation time, and higher gravity anomaly than the Mare Imbrium and Mare Serenitatis basins, even though the formation of the Mare Tranquillitatis and Mare Fecunditatis basins occurred earlier.
期刊介绍:
The COSPAR publication Advances in Space Research (ASR) is an open journal covering all areas of space research including: space studies of the Earth''s surface, meteorology, climate, the Earth-Moon system, planets and small bodies of the solar system, upper atmospheres, ionospheres and magnetospheres of the Earth and planets including reference atmospheres, space plasmas in the solar system, astrophysics from space, materials sciences in space, fundamental physics in space, space debris, space weather, Earth observations of space phenomena, etc.
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