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Age determination using
tourmaline

Ar and K isotope systematics

Fission track dating
Pb-Pb isotopic dating
Rb-Sr isotopic geochronology
Sm-Nd isotopic geochronology

Crystal Chemistry
Analytical techniques
Classification of tourmaline
Major element chemistry
Trace element chemistry
Sector zoning

Crystallography

Experimental data
Stability relations
Synthesis

Fault zones and kinematics

Fibrous tourmaline
Crystal chemistry
Morphology

Fluid/mineral inclusions

Gemstones

Health effects

Igneous rocks
Anorthosites
Granitoids
     Tourmaline granitoids
     Granitoid pegmatites
Greisens/Hydrothermal settings
Mafic plutonics
Tektites
Ultramafics/kimberlites
Volcanic rocks

Isotopes
B isotopes
H and O isotopes
Si isotopes
Sr isotopes

Metamorphic rocks
Amphibolites
Blueschists
Calcareous metasediments
Cordierite-orthoamphibole rocks
Eclogites
Felsic Gneisses
Granulites/Charnockites
     Metapelitic paragneiss
     Pegmatites (abyssal class)
Greenstones
Meta-arkoses
Meta-evaporites
Meta-ironstones
Metapelites/metaquartzites
Meta-ultramafics
Migmatites
Quartz veins
Skarns
Whiteschists

Ore deposits
Copper deposits
Massive sulfide deposits
Silver-gold deposits
Tin-tungsten deposits
Uranium deposits

Physical properties
Chatoyance/asterism
Density
Elastic constants
Electrical properties
Fracture
Hardness
Luminescence
Morphology
Surface properties
Thermal properties

Sediments and Sedimentary rocks
Detrital tourmaline
Diagenetic tourmaline
Evaporites
Weathering of tourmaline

Spectroscopy and microscopy
Infrared spectroscopy
Luminescence
Magnetic properties
Mossbauer spectroscopy
Nuclear magnetic resonance
Optical reflectivity
Optical spectroscopy and color
Raman spectroscopy
Synchrotron radiation
Thermoluminescence
TEM

Thermochemical data

Tourmaline breccias

Tourmalinites
Metapelites
 


Tourmaline in faults and as kinematic indicators

last update: 04/17/06

Byrnes, S. (1989) A reconnaissance study of brittle deformation along the frontal faults of the Black Mountains, Death Valley, California. MS Thesis, University of New Orleans, 81 p.

Chauris, L. (1985) Mylonites; traps for deuteric tourmalinization; the example of the Saint Renan; Armorican Massif, France. Comptes Rendus de l'Academie des Sciences, Serie 2, Mecanique, Physique, Sciences de l'Univers, Sciences de al Terre, 301, 599-607.

DeVore, G. W. (1966) Elastic strain energy and mineral recrystallization: a commentary on rock deformation. University of Wyoming Contributions to Geology, 5, 19-42.

Kohn, Celia, and Depaor, Declan G. (1987) Deformation of tourmaline crystals in the Setter's Formation surrounding the Baltimore gneiss domes, central Maryland. Geological Society of America Abstracts with Programs 19. (7). p.731

Kramer, H. and Allen, R. D. (1954) Analyses and indices of refraction of tourmaline from Fault Gouge near Barstow, San Bernardino County, California. American Mineralogist, 39, 1020-1023.

Toshiaki Masuda, Nozomi Kimura, Yuko Hara (2003) Progress in microboudin method for palaeo-stress analysis of metamorphic tectonites: application of mathematically refined expression. Tectonophysics, 364, 1-8.

Melka, R., Schulman, K., Schumannova, B., Hrouda, F. and Lobkowicz, M. (1992) The evolution of perpendicular linear fabrics in synkinematically emplaced tourmaline granite (central Moravia-Bohemian Massif). Journal of Structural Geology, 14, 605-620.

Mons, W. and Paulitsch, P. (1972) Preferred orientation of tourmaline prism in rocks. Geological Survey of India Records. 99, 121-126.

Passerini, P. and Marcucci, M. (1992) Mesoscopic faults in the granite of Isola del Giglio (Tuscan Archipelago). Tectonophysics, 206, 265-283.

Rochette, P., Scaillet, B., Guillot, S., Lefort, P. and Pecher, A. (1994) Magnetic properties of the high Himalayan Leukogranites - Structural implications. Earth and Planetary Science Letters, 126, 217-234.

Simpson, C. (1986) Determination of movement sense in mylonites. Journal of Geological Education, 34, 246-261.

Soto, Juan lgnacio (1991) Strain analysis method using the maximum frequency of unimodal deformed orientation distributions; applications to gneissic rocks. Journal of Structural Geology. 13. (3). p.329-335.

Thakur, V. C. (1972) Computation of the values of the finite strains in the Molare Region, Ticino, Switzerland, using stretched tourmaline crystals. Geological Magazine, 109, 445-449.

Tommasi, A., Vauchez, A., Fernandes, L. A. D. and Porcher, C. C. (1994) Magma-assisted strain localization in an orogen-parallel transcurrent shear zone of southern Brazil. Tectonics. 13, 421-437.

Wright, J. H. (1984) The significance of tourmaline breccias at Mt. Bischoff, Tasmania. Geoscience in the development of natural resources. Abstracts Geological Society of Australia. 12. p.568-569.


Darrell Henry
is the Campanile Charities Professor of Geology and Geophysics at Louisiana State University whose research specialty is metamorphic petrology. Further details of his professional background are included in an accompanying vita or faculty profile.

To contact Darrell Henry call (225)-578-2693, fax (225)-578-2302 or e-mail dhenry@geol.lsu.edu . Address: Department of Geology and Geophysics, Louisiana State University, Baton Rouge, LA 70803.

This page was last updated on 04/17/06.


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