Growth and physical transport of molybdenite spherules in a Na-Al-F-rich melt, Cave Peak porphyry Mo deposit, Texas, USA

The Eocene Cave Peak intrusive complex in Trans-Pecos Texas, USA, hosts a porphyry Mo system enriched in Mo, F, Nb, W, Sn, and rare earth elements. Some Cave Peak molybdenite occurs as unusual 100- to 500-µm spherules within aluminofluoride veins. Textural features and buoyancy considerations indicate that molybdenite spherules were formed at depth and were transported by an immiscible alkali fluoride melt. We suggest that these previously unrecognized spherules provide evidence for physical transport of mineral grains as a mechanism to enrich the metal content of F-rich porphyry systems emplaced into shallow crustal settings.

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Publication Details

Journal
Geology
Published
2026-02-09
DOI
https://doi.org/10.1130/g53827.1
Primary Topic
Inorganic Fluorides and Related Compounds
Type
article
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article

Growth and physical transport of molybdenite spherules in a Na-Al-F-rich melt, Cave Peak porphyry Mo deposit, Texas, USA

Dave Edey, Mert Ugurhan, Brent A. Elliott, Collin P. Hoffman et al.
Geology
Inorganic Fluorides and Related Compounds
article

Growth and physical transport of molybdenite spherules in a Na-Al-F-rich melt, Cave Peak porphyry Mo deposit, Texas, USA

Dave Edey, Mert Ugurhan, Brent A. Elliott, Collin P. Hoffman, Holly J. Stein, J. Richard Kyle
article en

Abstract

The Eocene Cave Peak intrusive complex in Trans-Pecos Texas, USA, hosts a porphyry Mo system enriched in Mo, F, Nb, W, Sn, and rare earth elements. Some Cave Peak molybdenite occurs as unusual 100- to 500-µm spherules within aluminofluoride veins. Textural features and buoyancy considerations indicate that molybdenite spherules were formed at depth and were transported by an immiscible alkali fluoride melt. We suggest that these previously unrecognized spherules provide evidence for physical transport of mineral grains as a mechanism to enrich the metal content of F-rich porphyry systems emplaced into shallow crustal settings.

Geology
Planetary Science Institute (US), University of Oslo (NO), CSU Ventures (US), The University of Texas at Austin (US)
Openalex Percentile: Top 63%
Inorganic Fluorides and Related Compounds
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