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Nabi Musa

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Journal Article
Published: 01 August 2012
Russ. Geol. Geophys. (2012) 53 (8): 745–762.
...E.V. Sokol; O.A. Kozmenko; S.N. Kokh; Ye. Vapnik Abstract Nabi Musa located at the northern tip of the Dead Sea at 31°48′ N, 35°25′ E is one of fifteen complexes of the Hatrurim Formation or the so-called “Mottled Zone” (MZ) which are fossil mud volcanoes. Self ignition of methane during...
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Journal Article
Published: 01 April 2011
American Mineralogist (2011) 96 (4): 659–674.
... at the Nabi Musa locality (Judean Desert, Israel), in a peculiar rock complex of the Mottled Zone. We have explored the possible mechanisms responsible for leaching Cr 6+ from natural rocks, by means of field observations, batch experiments, thermodynamic modeling, and mineralogical analyses of the Nabi Musa...
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Rocks of Nabi Musa dome. (a) Lateral contact between Nabi Musa and bituminous calcareous rocks; (b) bituminous calcareous rocks in the contact zone. See the network of crosscutting gypsum-calcite intercalations; (c) breccias consisting of clasts and pebbles of Campanian chert and Coniacian–Turonian carbonates in the main crater; (d) unconsolidated cement from crater upper part, with fresh smectites and quartz sand; (e) tortuous rootless paralava veins strongly altered by later hydrothermalism; locally CSH and ettringite fully substitute for paralava material (old crater); (f) fresh paralava from a swelling vein (sample YV-197).
Published: 01 August 2012
Fig. 5. Rocks of Nabi Musa dome. ( a ) Lateral contact between Nabi Musa and bituminous calcareous rocks; ( b ) bituminous calcareous rocks in the contact zone. See the network of crosscutting gypsum-calcite intercalations; ( c ) breccias consisting of clasts and pebbles of Campanian chert
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(a) Nabi Musa locality along the Jerusalem–Jericho highway truncation. (b) Gehlenite–rankinite–wollastonite paralava nest in altered hydrogrossular-bearing rock.
Published: 02 May 2024
Figure 1. (a) Nabi Musa locality along the Jerusalem–Jericho highway truncation. (b) Gehlenite–rankinite–wollastonite paralava nest in altered hydrogrossular-bearing rock.
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Simplified cross-section of Nabi Musa fossil mud volcano, with locations of sampling sites. Compiled using field data of 2007. 1, light-color brecciated and indurated chalky rocks; 2, slightly bituminous gray chalky rocks; 3, bituminous dark gray chalky rocks; 4, fill of craters: reddish and straw yellow brecciated sedimentary rocks subjected to combustion metamorphism and/or hydrothermal alteration; 5, brown to black welded breccias totally transformed to CM rocks: CM foci (a), their remnants (b); 6, small pipe-like bodies (diatremes) mainly composed of more or less cemented brecciated material of underlying sediments; 7, unconsolidated ochre-rich sediments with chert clasts in a calcite-gypsum-smectite matrix; 8, paralavas: (a) veins, (b) their hydrothermally altered relicts; 9, hydrothermal veins; 10, sampling sites; 11, photographing sites (Fig. 5); 12, place where the piece of Nubian sandstone was found. I, main (young) crater; II, old crater.
Published: 01 August 2012
Fig. 4. Simplified cross-section of Nabi Musa fossil mud volcano, with locations of sampling sites. Compiled using field data of 2007. 1 , light-color brecciated and indurated chalky rocks; 2 , slightly bituminous gray chalky rocks; 3 , bituminous dark gray chalky rocks; 4 , fill of craters
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Vertical maps of road cut (Nabi Musa edifice): (a) magnetic susceptibility, (b) gamma radioactivity, and (c) simplified geologic section.
Published: 20 May 2010
Figure 9. Vertical maps of road cut (Nabi Musa edifice): (a) magnetic susceptibility, (b) gamma radioactivity, and (c) simplified geologic section.
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Modeling of magnetic field at level 3 of the Nabi Musa edifice: (a) ΔT field observed (averaged) and calculated; (b) southern face of physical-geological model.
Published: 20 May 2010
Figure 10. Modeling of magnetic field at level 3 of the Nabi Musa edifice: (a) Δ T field observed (averaged) and calculated; (b) southern face of physical-geological model.
Journal Article
Published: 02 May 2024
Mineralogical Magazine (2024) 88 (3): 335–344.
...Figure 1. (a) Nabi Musa locality along the Jerusalem–Jericho highway truncation. (b) Gehlenite–rankinite–wollastonite paralava nest in altered hydrogrossular-bearing rock. ...
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Journal Article
Journal: Geophysics
Published: 20 May 2010
Geophysics (2010) 75 (3): B91–B101.
...Figure 9. Vertical maps of road cut (Nabi Musa edifice): (a) magnetic susceptibility, (b) gamma radioactivity, and (c) simplified geologic section. ...
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PAAS-normalized trace-element (a–d) and REE and Y (e–h) spectra. PAAS (Post Archaean Australian Shale) composition is according to (Taylor and McLennan, 1985). a, e, Nabi Musa bituminous rocks; b, f, Makhtesh Katan quartz arenite; c, g, Hatrurim clinopyroxene–anorthite hornfels; d, h, Nabi Musa CaSiO3-and Ca2SiO4-normative paralavas.
Published: 01 August 2012
Fig. 7. PAAS-normalized trace-element ( a – d ) and REE and Y ( e – h ) spectra. PAAS (Post Archaean Australian Shale) composition is according to ( Taylor and McLennan, 1985 ). a , e , Nabi Musa bituminous rocks; b , f , Makhtesh Katan quartz arenite; c , g , Hatrurim clinopyroxene
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Backscattered SEM image of cracked and dehydrated Cr6+-bearing ettringites from Nabi Musa MZ complex.
Published: 01 April 2011
F igure 7. Backscattered SEM image of cracked and dehydrated Cr 6+ -bearing ettringites from Nabi Musa MZ complex.
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Schematic geological map of the Judean Desert and eastern part of the Judean mountains (modified after Sneh et al. 1998). The Hatrurim Complex: (a) Nabi Musa; (b) Jabel Harmun; (c) Hyrcania; (d) Ma’ale Adummim.
Published: 01 May 2014
Figure 1 Schematic geological map of the Judean Desert and eastern part of the Judean mountains (modified after Sneh et al. 1998 ). The Hatrurim Complex: ( a ) Nabi Musa; ( b ) Jabel Harmun; ( c ) Hyrcania; ( d ) Ma’ale Adummim.
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SiO2–CaO (a), Fe2O3–CaO (b), and Al2O3–CaO (c) diagrams that illustrate three-component mixing (chalk + quartz sandstone + marl), for Nabi Musa CaSiO3-and Ca2SiO4-normative paralavas. 1, quartz arenite. Other symbols are as in Fig. 6.
Published: 01 August 2012
Fig. 8. SiO 2 –CaO ( a ), Fe 2 O 3 –CaO ( b ), and Al 2 O 3 –CaO ( c ) diagrams that illustrate three-component mixing (chalk + quartz sandstone + marl), for Nabi Musa CaSiO 3 -and Ca 2 SiO 4 -normative paralavas. 1 , quartz arenite. Other symbols are as in Fig. 6 .
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Morphology of ternesite metacrysts (lighter) in cathodoluminescence (A–D, F) and BSE (E) images: A Jabel Harmun, B West Har Parsa, C Jabel Harmun (specimen shown in Fig. 4D); D–F Nabi Musa: D – spherulites of ternesite; E, F replacement front of fluorellestadite by ternesite. Lrn – larnite, Ye – ye’elimite, Brm – brownmillerite, Ell- fluorellestadite, Mgf – magnesioferrite, Trn – ternesite.
Published: 01 March 2016
Fig. 6 Morphology of ternesite metacrysts (lighter) in cathodoluminescence (A–D, F) and BSE (E) images: A Jabel Harmun, B West Har Parsa, C Jabel Harmun (specimen shown in Fig. 4D ); D–F Nabi Musa: D – spherulites of ternesite; E, F replacement front of fluorellestadite by ternesite. Lrn
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Backscattered SEM images and respective characteristic EDX spectra of sulfate ettringite (a, b) and Cr6+-bearing ettringite (c, d) from Nabi Musa. (a) Typical herringbone structure composed of afwillite and sulfate ettringite lining the vein wall in low-grade Hatrurim rock. (b) Characteristic EDX spectrum of pure sulfate ettringite. (c) Fine-grained prisms of fresh Cr6+-bearing ettringite from the vein interior. (d) Characteristic EDX spectrum of Cr6+-bearing ettringite. Abbreviations: Afw = afwillite, Ett = ettringite.
Published: 01 April 2011
F igure 6. Backscattered SEM images and respective characteristic EDX spectra of sulfate ettringite ( a, b ) and Cr 6+ -bearing ettringite ( c, d ) from Nabi Musa. ( a ) Typical herringbone structure composed of afwillite and sulfate ettringite lining the vein wall in low-grade Hatrurim rock
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A Outcrop photograph of pseudoconglomerates represented by ‘pebbles’ of various sizes on the west slope of Har Parsa Mt; the insert shows the typical structure of ‘pebble’ with characteristic concentric cracks filled with low-temperature minerals; B angular ‘pebble’ from pseudoconglomerate from Har Parsa with visible ternesite porphyroblasts (metacrysts); the crystal magnified in Fig. 4C is shown by arrow; C dark-brown ternesite metacrystal with characteristic rough surface; D dark-green ternesite ‘pebble’ from pseudoconglomerate in Jabel Harmun; E green fragments of ternesite-rich rock from Nabi Musa.
Published: 01 March 2016
of ternesite-rich rock from Nabi Musa.
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(a) Typical Cr6+-bearing ettringite and afwillite filling a crack in a combustion metamorphic rock. The brown color is due to abundant Cr3+-bearing brownmillerite, Fe-spinel, and Ca ferrite. Sample Ettr-5, Maale Adummim MZ area, 2010. (b) Bentorite vein in low-grade Hatrurim rock. Hatrurim Basin MZ area, 2010. (c) Field occurrence of chromatite precipitates on the surface of CaCO3- and gypsum-cemented low-grade Hatrurim rocks, at the foot of Nabi Musa hill, May 2007; the lens cap is 6 cm in diameter. Abbreviations: Ett = ettringite, Afw = afwillite.
Published: 01 April 2011
rock. Hatrurim Basin MZ area, 2010. ( c ) Field occurrence of chromatite precipitates on the surface of CaCO 3 - and gypsum-cemented low-grade Hatrurim rocks, at the foot of Nabi Musa hill, May 2007; the lens cap is 6 cm in diameter. Abbreviations: Ett = ettringite, Afw = afwillite.
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Tetrahedral sites composition projected in the Fe3+–Al–Si diagram. 1–4 Khesinite: 1 – holotype (Table 1, analysis 1); 2 – paralava, Negev; 3 – gehlenite hornfels, Negev Desert and Judean Mts; 4 – esseneite–melilite paralava, Zelénky, Czech Republic (Záček et al., 2015); 5 – gehlenite hornfels, Nabi Musa (Sokol et al., 2011); 6–8 Dorrite: 6 – gehlenite hornfels, Negev; 7, 8 (mean analysis) – holotype (Cosca et al., 1988); 9 – “Fe3+ reach melilite” (Foit et al., 1987); 10 – “malachovite” (Chesnokov et al., 2008); 11 – “anthropogenic khesinite” (Gatel et al., 2015).
Published: 01 March 2017
– gehlenite hornfels, Nabi Musa ( Sokol et al. , 2011 ); 6–8 Dorrite: 6 – gehlenite hornfels, Negev; 7, 8 (mean analysis) – holotype ( Cosca et al. , 1988 ); 9 – “Fe 3+ reach melilite” ( Foit et al. , 1987 ); 10 – “malachovite” ( Chesnokov et al. , 2008 ); 11 – “anthropogenic khesinite” ( Gatel et al
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Al2O3/SiO2 ratios in CM rocks and MZ sediments, compared with marine chalks. 1, CaSiO3- and Ca2SiO4-normative paralava; 2, clinopyroxene-anorthite paralava; 3, clinopyroxene-anorthite hornfels; 4, melilite hornfels; 5, larnite rocks; 6, spurrite rocks; 7, gypsum-calcite cement with smectite and quartz sand; 8, Nabi Musa bituminous calcareous sediments; 9, Maastrichtian marine chalk (Ghareb Formation); 10, Al = f(Si) regression lines for all above rocks (except for CaSiO3- and Ca2SiO4-normative paralava). 1–8 are according to Sokol et al., this study (Table 4) and 9 is according to (Bogoch et al., 1996).
Published: 01 August 2012
-calcite cement with smectite and quartz sand; 8 , Nabi Musa bituminous calcareous sediments; 9 , Maastrichtian marine chalk (Ghareb Formation); 10 , Al = f (Si) regression lines for all above rocks (except for CaSiO 3 - and Ca 2 SiO 4 -normative paralava). 1 – 8 are according to Sokol et al
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PAAS-normalized (Taylor and McLennan, 1985) trace-element spectra that illustrate three-component (model I) and four-component (model II) mixing, for Nabi Musa CaSiO3- and Ca2SiO4-normative paralavas. a, Major elements; b, trace elements; c, REE. 1, paralava; 2, model I; 3, model II; 4, marine limestone; 5, quartz arenite. Model composition I: 60 wt.% bituminous chalk, 30 wt.% quartz sandstone, 10 wt.% marl; model composition II: 30 wt.% bituminous chalk, 30 wt.% organic-free chalk, 30 wt.% quartz sandstone, 10 wt.% marl. Composition of Turonian marine limestone is after (Möller et al., 2003). Other symbols are as in Fig. 6.
Published: 01 August 2012
Fig. 9. PAAS-normalized ( Taylor and McLennan, 1985 ) trace-element spectra that illustrate three-component (model I) and four-component (model II) mixing, for Nabi Musa CaSiO 3 - and Ca 2 SiO 4 -normative paralavas. a , Major elements; b , trace elements; c , REE. 1 , paralava; 2 , model I