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Canigou Massif

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Journal Article
Published: 01 February 1995
The Canadian Mineralogist (1995) 33 (1): 77–84.
...Roger L. Gibson; Thomas Wallmach; Deon de Bruin Abstract Vesuvianite grains in a calc-silicate layer from the Canigou Massif (Pyrenees, France) display oscillatory concentric birefringence-zoning and a locally developed, discordant, nearly isotropic marginal zone. The boundaries between the zones...
Journal Article
Published: 01 December 1994
Journal of the Geological Society (1994) 151 (6): 987–997.
...R. L. GIBSON; M. J. BICKLE Abstract Quantitative thermobarometry of garnet + biotite + sillimanite f cordierite pelitic assemblages from the Canigou massif, and constraints based on consideration of high-grade metapelitic reaction equilibria, indicate that peak temperatures during Hercynian...
Journal Article
Journal: Geology
Published: 01 April 1991
Geology (1991) 19 (4): 380–383.
...Roger L. Gibson Abstract A detailed study has been made of the structural and metamorphic history of part of the Hercynian low-pressure-high-temperature regional metamorphic terrane exposed in the Canigou massif, France. Microtextural relations between, and compositional zoning within...
Journal Article
Published: 01 January 1965
Bulletin de la Société Géologique de France (1965) S7-VII (3): 356–382.
...G. Guitard Abstract The progressive metamorphism of Canaveilles series (Cambrian) pelitic sediments, in the Canigou massif of the eastern Pyrenees, was studied by the systematic analysis of the mineral associations and application of the phase rule. Eleven subfacies--muscovite-chlorite...
Journal Article
Published: 01 January 1953
Bulletin de la Société Géologique de France (1953) S6-III (9): 907–924.
...Gerard Guitard Abstract Preliminary report on the structure of the Canigou massif in the eastern French Pyrenees; deals principally with the effects of regional metamorphism in the development of the Hercynian (Paleozoic) migmatites forming the massif. GeoRef, Copyright 2004, American Geological...
Journal Article
Published: 01 January 1969
Bulletin de la Société Géologique de France (1969) S7-XI (4): 476–483.
...Francois Llac Abstract Hercynian tectonic stages, isoclinal folds, recumbent folds, subvertical schistosity Aspres massif Canigou Europe folds foliation France Hercynian lineation metamorphic rocks orogeny Pyrenees-Orientales schistosity structural geology systems tectonics...
Journal Article
Published: 01 January 1960
Bulletin de la Société Géologique de France (1960) S7-II (7): 862–887.
... and, in the Canigou massif, initiated migmatization and granitization that continued after movement ceased. In the Agly massif the structures were developed mainly in the last stage. GeoRef, Copyright 2004, American Geological Institute. Reference includes data from Bibliography and Index of Geology Exclusive...
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Le métamorphisme barrovien MI dans le massif du Canigou. – 2A. Position des isogrades MI dans la pile lithotectonique selon que le disthène apparaît avant la staurotide (hypothèse 1, retenue) ou après (hypothèse 2, non retenue). – 2B. Chemins P-T-D de MI/D1 à MIIa/D2a dans le massif du Canigou. Le caractère prograde de MII implique une forte baisse de température entre MI et MII, en plus de la baisse de pression, et donc un chemin antihoraire entre MI et MII.
 Fig. 2. – The mediumpressure (Barrovian) MI metamorphism in the Canigou massif. – 2A. Location of the MI isograds in the lithotectonic pile, depending on whether kyanite appears before staurolite (hypothesis 1, accepted) or after (hypothesis 2, rejected). – 2B. P-T-D paths from MI/D1 to MIIa/D2a. The prograde characteristic of MII implies a large decrease in temperature between MI and MII, in addition to the pressure drop, hence the anticlokwise loop from MI to MII.
Published: 01 September 2010
F ig . 2. – Le métamorphisme barrovien MI dans le massif du Canigou. – 2A. Position des isogrades MI dans la pile lithotectonique selon que le disthène apparaît avant la staurotide (hypothèse 1, retenue) ou après (hypothèse 2, non retenue). – 2B. Chemins P-T-D de MI/D1 à MIIa/D2a dans le
Journal Article
Published: 01 January 1958
Bulletin de la Société Géologique de France (1958) S6-VIII (8): 913–920.
...) schists, the evidence of granitization of the Mont-Louis massif, the Albere paleovolcanic series, the Devonian-Carboniferous boundary, and the metamorphism of the Canigou massif. GeoRef, Copyright 2004, American Geological Institute. Reference includes data from Bibliography and Index of Geology...
Journal Article
Published: 01 January 1958
Bulletin de la Société Géologique de France (1958) S6-VIII (8): 871–880.
...L. Auriol; Marcel Casteras Abstract Evidence of the post-Hercynian cover of the axial zone of the Pyrenees is preserved east and southeast of the Canigou massif in the Amelie-les-Bains basin and in the small Cretaceous and Nummulitic basins of Coustouges and La Manere respectively. The stratigraphy...
Journal Article
Published: 01 January 1958
Bulletin de la Société Géologique de France (1958) S6-VIII (8): 928–929.
...Gerard Guitard Abstract Migmatites of deep-seated origin are exposed in the Cadi gorges which cut deeply into the south flank of the Canigou massif. Observations made in the gorge area during a visit by the eastern Pyrenees field excursion of the Societe Geologique de France in September 1958...
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Published: 01 September 2010
T able I. – Principaux événements tectono-métamorphiques et plutoniques varisques dans les Pyrénées. Correspondance entre la numérotation des phases de déformation utilisée dans le massif du Canigou [par ex., Guitard et al ., 1998 ] et celle utilisée dans cet article.
 T abl . I
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Compilation of the post-50 Ma exhumation pattern inferred from published thermal histories from the Pyrenean Axial Zone massifs. The models show the highest exhumation rates in the Canigou Massif to the east and in the Maladeta area in the center, and the diachronous exhumation from east to west (modified from Daril 2018).
Published: 17 December 2020
Fig. 2. Compilation of the post-50 Ma exhumation pattern inferred from published thermal histories from the Pyrenean Axial Zone massifs. The models show the highest exhumation rates in the Canigou Massif to the east and in the Maladeta area in the center, and the diachronous exhumation from east
Image
Sketch map of the Eastern Pyrenees displaying the three tectonic elements of the Axial Zone (AZ) and the trace of Variscan foliation. AHD – Aston- Hospitalêt dome; CM –Canigou massif; LC – Lys-Caillaouas massif; MF – Merens Fault; NPF – North Pyrenean Fault; NPZ – North Pyrenean Zone; SPZ – South Pyrenean Zone; SMD – Soulcem metamorphic dome; TS – Trois Seigneurs massif. Modified after van den Eeckhout & Zwart (1988) and Gleizes, Leblanc & Bouchez (1997).
Published: 01 September 2003
Figure 1. Sketch map of the Eastern Pyrenees displaying the three tectonic elements of the Axial Zone (AZ) and the trace of Variscan foliation. AHD – Aston- Hospitalêt dome; CM –Canigou massif; LC – Lys-Caillaouas massif; MF – Merens Fault; NPF – North Pyrenean Fault; NPZ – North Pyrenean Zone
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Geological sketch map of the Pyrenees, compiled after Zwart (1979) and Vergés et al. (1995), and ECORS crustal-scale cross-section after Muñoz (1992). NPF, North Pyrenean Fault; NPZ, North Pyrenean Zone; SPZ, South Pyrenean Zone; MF, Mérens Fault; CCR, Catalan Coastal Range; A, Aston massif; H, Hospitalet massif; C, Canigou massif; Ch, Chiroulet dome; G, Garona dome; RF, Roc de Frausa massif; S, Soulcem dome. ECORS cross-section: R, Rialp unit; N, Nogueres unit; steep orientations of units south of the Rialp unit, and possible backward tilting of the Nogueres unit near the NPF, should be noted. Rectangle indicates Cap de Creus area shown in Figure 2; black line west of the Aston massif (A) denotes cross-section across the Soulcem thermal dome (S) shown in Figure 8.
Published: 22 November 2016
; A, Aston massif; H, Hospitalet massif; C, Canigou massif; Ch, Chiroulet dome; G, Garona dome; RF, Roc de Frausa massif; S, Soulcem dome. ECORS cross-section: R, Rialp unit; N, Nogueres unit; steep orientations of units south of the Rialp unit, and possible backward tilting of the Nogueres unit near the NPF
Journal Article
Published: 01 January 1953
Bulletin de la Société Géologique de France (1953) S6-III (1-3): 43–57.
... Bibliography and Index of Geology Exclusive of North America, Geological Society of America, Boulder, CO, United States 1953 Canigou massif Europe France Gabbro-diorite masses petrogenesis petrology Pyrenees rock descriptions Western Europe ...
Journal Article
Published: 01 September 2010
Bulletin de la Société Géologique de France (2010) 181 (5): 411–428.
...F ig . 2. – Le métamorphisme barrovien MI dans le massif du Canigou. – 2A. Position des isogrades MI dans la pile lithotectonique selon que le disthène apparaît avant la staurotide (hypothèse 1, retenue) ou après (hypothèse 2, non retenue). – 2B. Chemins P-T-D de MI/D1 à MIIa/D2a dans le...
FIGURES
First thumbnail for: Polymetamorphism and crustal evolution of the east...
Second thumbnail for: Polymetamorphism and crustal evolution of the east...
Third thumbnail for: Polymetamorphism and crustal evolution of the east...
Journal Article
Published: 01 February 1992
Journal of the Geological Society (1992) 149 (1): 156–158.
... 65 177 187 Gibson R. L. The relationship between deformation and metamorphism in the Canigou Massif, Pyrenees: a case study Geologie en Mijnbouw 1989 68 345 356 Gibson R. L. Hercynian low-pressure-high-temperature regional metamorphism and subhorizontal foliation...
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Relations entre le métamorphisme HT-BP MII, les déformations tardives D2a à D2c et le plutonisme, sur l’exemple du massif du Canigou et du pluton de Mont-Louis.
 Fig. 4. – Cartoons depicting the thermal and magmatic evolution from D2a to D2c in both the Canigou dome and the Villefranches syncline (Mont-Louis massif).
Published: 01 September 2010
F ig . 4. – Relations entre le métamorphisme HT-BP MII, les déformations tardives D2a à D2c et le plutonisme, sur l’exemple du massif du Canigou et du pluton de Mont-Louis.
 F ig . 4. – Cartoons depicting the thermal and magmatic evolution from D2a to D2c in both the Canigou dome
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3A. Le métamorphisme HT-BP MII pendant D2a et D2b dans le massif du Canigou. Localisation des points b, c, y et z dans le dôme du Canigou. –3B. Chemins P-T-D de MII pendant D2a et D2b dans le massif du Canigou. MII culmine à la fin de D2a ; ensuite, le chemin est rétrograde, sauf près des plutons du Canigou et de Mont-Louis, où MII est aussi le métamorphisme de contact de ces plutons (MIIγ).
 Fig. 3. – The HT-LP MII metamorphism. — 3A. Cartoons enlightening the pressure (depth) evolution for a series of reference points, in the northern limb of the Canigou dome (Canaveilles section, points b, c, x, x’, y) and in the core of the dome (points z’, z). — 3B. Semi-quantitative petrogenetic grid and P-T-t path for the MII metamorphic event. The thermal culmination is usually at the end of D2a (i.e., MIIa phase), excepted in the cores of some anticlines (MIIb) and in the vicinity of early sheet-like granite intrusions (MIIγ).
Published: 01 September 2010
F ig . 3. – 3A. Le métamorphisme HT-BP MII pendant D2a et D2b dans le massif du Canigou. Localisation des points b, c, y et z dans le dôme du Canigou. –3B. Chemins P-T-D de MII pendant D2a et D2b dans le massif du Canigou. MII culmine à la fin de D2a ; ensuite, le chemin est rétrograde, sauf