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Mount Garibaldi

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Journal Article
Published: 02 March 2023
Canadian Journal of Earth Sciences (2023) 60 (5): 464–484.
...Conner A. G. Morison; Catherine J. Hickson Mount Garibaldi Volcanic System (MGVS) is the southernmost member of Garibaldi Volcanic Belt (GVB), the northern (Canadian) segment of the Cascade Volcanic Arc. Temporally episodic explosive to effusive eruptions may be associated with peak ice unloading...
FIGURES | View All (15)
Journal Article
Published: 01 November 1992
Canadian Journal of Earth Sciences (1992) 29 (11): 2425–2428.
...Gregory R. Brooks; Pierre A. Friele Abstract The Ring Creek lava flow, extending from Opal Cone, generally is considered to be the youngest volcanic feature in the southern section of the Mount Garibaldi volcanic field, southwestern British Columbia. An in situ stump dated 10 650 ± 70 BP (Beta...
Journal Article
Journal: GSA Bulletin
Published: 01 February 1958
GSA Bulletin (1958) 69 (2): 161–178.
...W. H MATHEWS Abstract The Mount Garibaldi map-area is in the southern part of the plutonic complex comprising the Coast Mountains of British Columbia. The oldest rocks of the map-area are metavolcanic and minor metasedimentary rocks of unknown age and structure. These are extensively invaded...
Journal Article
Journal: GSA Bulletin
Published: 01 February 1958
GSA Bulletin (1958) 69 (2): 179–198.
...W. H MATHEWS Abstract The Mount Garibaldi map-area is in the southern Coast Mountains of British Columbia. The bold topography of the area is a product of two cycles of stream erosion modified by continental and alpine glaciation and by Quaternary vulcanism. The volcanic rocks of the map-area...
Image
(A) Volcanic systems (Mount Meager, Mount Cayley and Mount Garibaldi—boxed) and major vents (coloured by age) of the Garibaldi Volcanic Belt (excluding Silverthrone), with communities and prominent peaks. Basemap provided by Google Earth™; Data SIO. NOAA, U.S. Navy. NGA, GEBCO; Image Landsat/Copernicus. (B) Landscape features in Mount Garibaldi Volcanic System, including lava flows of known age. (1) Barrier Lakes, (2) Barrier Lava Flow, (3) Cheakamus Valley basalts, (4) Cheekye Fan, (5) Conroy Creek, (6) Culliton Creek Lava Flow, (7) Dalton Dome Lava Flow, (8) Garibaldi Lake, (9) Helm Creek basalts, (10) Mamquam Valley, (11) Monmouth Creek dacites, (12) Ring Creek lava dome structure, (13) Ring Creek Lava Flow, (14) Rubble Creek, (15) Skookum Creek, (16) Stawamus Chief, (17) Swift Creek, (18) Warren Glacier. Ages are from Wilson and Russell (2018), but note that Monmouth Creek (lower left) has not yet been chronometrically verified (Wilson et al. 2016). Residential areas of Squamish are shown in stripes. The flows represent multiple eruptions from a single vent to single eruptions from unknown vents. Note that there are vents and flows that are not shown on this map because they have not yet been chronometrically verified. Deposit and lava flow outlines modified from Wilson and Russell (2018). Basemap provided by Google Earth™; Image © 2022 CNES/Airbus; Image © 2022 Maxar Technologies.
Published: 02 March 2023
Fig. 2. (A) Volcanic systems (Mount Meager, Mount Cayley and Mount Garibaldi—boxed) and major vents (coloured by age) of the Garibaldi Volcanic Belt (excluding Silverthrone), with communities and prominent peaks. Basemap provided by Google Earth™; Data SIO. NOAA, U.S. Navy. NGA, GEBCO; Image
Image
The northern section of Mount Garibaldi Volcanic System, showing the (1) Barrier Lava Flow, (2) Culliton Creek Lava Flow, and (3) Ring Creek Lava Flow (terminus only). Orange highlighting illustrates lava flow surfaces, and red represents the topographically exposed flow thickness of the Barrier. Other numbered locations as follows: (4) Barrier lakes, (5) Cheekye Fan, (6) Conroy Creek, (7) Dalton Dome Lava Flow, (8) Garibaldi Lake, (9) Rubble Creek, (10) Swift Creek, (11) Warren Glacier. The precipitous nature of the mountains above the settlement and highway means that velocity and lava flow lengths are liable to be greater. Other volcanic peaks are visible in the USA to the south. Base imagery provided by Google Earth™ (28 August 2019); Image © 2022 Maxar Technologies; Image Landsat/Copernicus; Image © 2022 CNES/Airbus; Image © 2022 Province of British Columbia.
Published: 02 March 2023
Fig. 3. The northern section of Mount Garibaldi Volcanic System, showing the (1) Barrier Lava Flow, (2) Culliton Creek Lava Flow, and (3) Ring Creek Lava Flow (terminus only). Orange highlighting illustrates lava flow surfaces, and red represents the topographically exposed flow thickness
Image
(A) Looking south to Mount Garibaldi (2678 m), the highest peak in MGVS, which is highly dissected by glacial erosion. Warren Glacier flanks its northern slopes. Photo © Catherine Hickson, August 2007. (B) Looking south to Black Tusk (2319 m), which forms a stunning topographic point in this aerial photo. In the background and to the south is Mount Garibaldi itself. The Table is a flat-topped subglacial “tuya”, located between the two peaks. Photo © Catherine Hickson, September 2007.
Published: 02 March 2023
Fig. 4. (A) Looking south to Mount Garibaldi (2678 m), the highest peak in MGVS, which is highly dissected by glacial erosion. Warren Glacier flanks its northern slopes. Photo © Catherine Hickson, August 2007. (B) Looking south to Black Tusk (2319 m), which forms a stunning topographic point
Image
(A) Aerial view of Mount Garibaldi (2678 m)—the Dalton Dome Lava Flow clings to the steep summit area. Such dacite lava flows are prone to collapse—generating pyroclastic density currents (when still cooling) and rock avalanches (when completely solidified). Following deglaciation, much of the original volcanic cone has collapsed into Cheekye catchment (Fig. 2). Photo © Catherine Hickson, September 2007. (B) Looking east to Mount Garibaldi showing the Dalton Dome Lava Flow. Photo © Catherine Hickson, August 2007.
Published: 02 March 2023
Fig. 12. (A) Aerial view of Mount Garibaldi (2678 m)—the Dalton Dome Lava Flow clings to the steep summit area. Such dacite lava flows are prone to collapse—generating pyroclastic density currents (when still cooling) and rock avalanches (when completely solidified). Following deglaciation, much
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Volcanism in the Garibaldi Volcanic Belt (GVB). (A) Tectonic setting of Cascade Volcanic Arc and its Canadian extension (i.e., GVB). Volcanic centres include Mount Lassen (L), Mount Shasta (S), Crater Lake (CL), Mount Jefferson (J), St. Helens (SH), Mount Rainer (R), Mount Baker (B), Mount Garibaldi (G), Mount Cayley (C), Mount Meager (M), Bridge River cones (BR), and Silverthrone (S). (B) Pleistocene and Holocene volcanic fields within the Garibaldi Volcanic Belt, southwestern British Columbia, including Mount Garibaldi (MGVF), Mount Cayley (MCVF), Mount Meager (MMVC), Salal Glacier volcanic field (SGVF), and Bridge River volcanic field (BRVF) (modified from Wilson and Russell 2018). (C) Geochemical compositions of GVB volcanic rocks from Mount Garibaldi, Cheakamus lavas, Mount Meager, and other minor localities.
Published: 27 July 2023
Fig. 7. Volcanism in the Garibaldi Volcanic Belt (GVB). (A) Tectonic setting of Cascade Volcanic Arc and its Canadian extension (i.e., GVB). Volcanic centres include Mount Lassen (L), Mount Shasta (S), Crater Lake (CL), Mount Jefferson (J), St. Helens (SH), Mount Rainer (R), Mount Baker (B
Journal Article
Published: 10 January 2018
Canadian Journal of Earth Sciences (2018) 55 (4): 331–342.
...Jared Fath; John J. Clague; Pierre Friele Cheekye Fan is a large paraglacial debris flow fan in southwest British Columbia. It owes its origin to the collapse of Mount Garibaldi, a volcano that erupted in contact with glacier ice near the end of the Pleistocene Epoch. The fan extended across Howe...
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Journal Article
Published: 01 February 2003
Environmental & Engineering Geoscience (2003) 9 (2): 99–115.
...JOHN J. CLAGUE; PIERRE A. FRIELE; IAN HUTCHINSON Abstract Stump Lake is strategically located to provide a sediment record of very large debris flows that travel down Cheekye River to lower Cheekye fan from the west flank of Mount Garibaldi, a Quaternary volcano in the southern Coast Mountains...
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Journal Article
Published: 01 March 2000
Canadian Journal of Earth Sciences (2000) 36 (12): 2023–2031.
...Pierre A. Friele; C. Ekes; E.J. Hickin Abstract Cheekye fan, a large (∼25 km 2 ) fan located at the head of Howe Sound, southwestern British Columbia, has its origins in the collapse of the western flank of Mount Garibaldi onto a waning Late Pleistocene glacier, followed by post-glacial...
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(a) Map of southwestern BC and northwestern Washington. Cities and towns are shown as squares. Volcanic centres of the Garibaldi Volcanic Belt are shown as triangles. From north to south, they are the Silverthrone caldera complex, the Franklin Glacier volcanic complex, the Bridge River Cones volcanic field, the Salal Glacier volcanic complex, the Mount Meager volcanic complex, the Mount Cayley stratovolcano, the Mount Garibaldi stratovolcano, the Mount Baker stratovolcano, and the Glacier Peak stratovolcano. (b) Study area with the area covered by the 1982 and 2001 magnetotelluric data (blue polygon). (c) Map of western North America showing the Cascade Volcanic Arc (red dots). These maps were plotted in latitude and longitude coordinates using the Mercator projection. The topography data are from the Shuttle Radar Topography Mission (SRTM) and were made publicly available by the United States Geological Survey (USGS).
Published: 11 May 2023
Cones volcanic field, the Salal Glacier volcanic complex, the Mount Meager volcanic complex, the Mount Cayley stratovolcano, the Mount Garibaldi stratovolcano, the Mount Baker stratovolcano, and the Glacier Peak stratovolcano. ( b ) Study area with the area covered by the 1982 and 2001 magnetotelluric
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 Figure 1. Map of Washington Cascade Range and surrounding region. Boxes enclose three primary sample regions, and blue lines enclose specific regions, referred to in text, Figure 2, and GSA Data Repository item (see text footnote 1). MSB—Mount Stuart batholith. Quaternary volcanoes of or near modern arc: MG—Mount Garibaldi, MB—Mount Baker, GP—Glacier Peak, MR—Mount Rainier, MSH—Mount St. Helens, IH—Indian Heaven volcanic field, MA—Mount Adams, SIM—Simcoe.
Published: 01 September 2002
modern arc: MG—Mount Garibaldi, MB—Mount Baker, GP—Glacier Peak, MR—Mount Rainier, MSH—Mount St. Helens, IH—Indian Heaven volcanic field, MA—Mount Adams, SIM—Simcoe.
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Timeline of chronometrically verified eruptions (shaded by geochemistry) in Garibaldi Volcanic Belt since 100 000 years B.P. In this paper, we calibrate eruption dates that were originally verified through radiocarbon dating, and have adjusted them on this timeline as appropriate. These are limited to Cheakamus Valley Basalts (Green 1981), Mount Garibaldi block-and-ash (Friele and Clague 2009), Opal Cone (Brooks and Friele 1992), younger Plinth Peak (Russell et al. 2021), and Bridge River tephra (Clague et al. 1995). Uncalibrated radiocarbon (and other chronometric) data are indexed by Wilson and Russell (2018; Table 1).
Published: 02 March 2023
. These are limited to Cheakamus Valley Basalts ( Green 1981 ), Mount Garibaldi block-and-ash ( Friele and Clague 2009 ), Opal Cone ( Brooks and Friele 1992 ), younger Plinth Peak ( Russell et al. 2021 ), and Bridge River tephra ( Clague et al. 1995 ). Uncalibrated radiocarbon (and other chronometric) data
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Examples of Pleistocene to Holocene volcanic edifices in the Canadian Cordillera. (A) Shield volcano and caldera of Mount Edziza (photo by B. Edwards). (B) “The Pyramid” lava dome from Mount Edziza (photo by B. Edwards). (C) Eve cone, a basaltic tephra cone (with associated lavas) on Mount Edziza (photo by B. Edwards). (D) View looking southwest into vent for the youngest eruption of Mount Meager 2360 BP situated below Plinth Peak immediately above the Lillooet River valley (photo by K. Russell). (E) View of Atwell Peak and Mount Garibaldi volcano from Squamish, British Columbia (photo by C. Hickson).
Published: 27 July 2023
) on Mount Edziza (photo by B. Edwards). (D) View looking southwest into vent for the youngest eruption of Mount Meager 2360 BP situated below Plinth Peak immediately above the Lillooet River valley (photo by K. Russell). (E) View of Atwell Peak and Mount Garibaldi volcano from Squamish, British Columbia
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Distribution of volcanism in the Cascade arc modified from Schmidt et al. (2008) and Hildreth (2007). Main-arc volcanoes are indicated by triangles, and rear-arc volcanoes are indicated by stars. Mafic vent clusters (red) are distinguished from andesitic to rhyolitic vent clusters (blue). Westward-younging rhyolites of the Northwest Basin and Range (Ford et al. 2013) are indicated with blue isochrons. The crust has a thickness of 42 ± 3 km and thins strongly to the west and slightly to the east. Except for the Siletzia terrane, the crust consists of accreted terranes stitched with Mesozoic plutons. EP: Explorer plate. The main andesite–dacites in the northern arc are MM: Mount Meagher; MC: Mount Cayley; MG: Mount Garibaldi; MB: Mount Baker; and GP: Glacier Peak, also called the Garibaldi volcanic belt. In the central arc, there are MR: Mount Rainier; GR: Goat Rocks volcanic complex; MA: Mount Adams; SH: Mount St. Helens; and MH: Mount Hood. Abundant distributed mafic vents distinguish the central segment and include the forearc Boring volcanic field (BVF; named for the town of Boring, Oregon), Indian Heaven, and the rear-arc Simcoe volcanic field (star SM) that is mainly intraplate-like basalts. Mount Hood (MH) lies at the junction with the southern arc, with main peaks MJ: Mount Jefferson; TS: Three Sisters (and Broken Top); CP: Cappy Mountain; CL: Crater Lake; MMc: Mount McLaughlin; MS: Mount Shasta; and LA: Mount Lassen. The Newberry (NV) and Medicine Lake (ML) volcanoes are rear-arc, rhyolite-cored mafic shields.
Published: 01 August 2022
with Mesozoic plutons. EP: Explorer plate. The main andesite–dacites in the northern arc are MM: Mount Meagher; MC: Mount Cayley; MG: Mount Garibaldi; MB: Mount Baker; and GP: Glacier Peak, also called the Garibaldi volcanic belt. In the central arc, there are MR: Mount Rainier; GR: Goat Rocks volcanic complex
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Map of the Cascadia subduction zone denoting important locations mentioned within the text. Major volcanic centers are shown as triangles, approximate regions of many Indigenous Peoples of the Cascadian Region (IPOCR) are shown in blue text, and other specific locations are shown in green text. Volcanic centers are abbreviated as MM: Mount Meager; MC: Mount Cayley; MG: Mount Garibaldi; MB: Mount Baker; GP: Glacier Peak; MR: Mount Rainier; MSH: Mount St. Helens; MA: Mount Adams; MH: Mount Hood; MJ: Mount Jefferson; TS: Three Sisters; NV: Newberry Volcano; CL: Crater Lake Volcano; MMc: Mount McLoughlin; MLV: Medicine Lake Volcano; MS: Mount Shasta; and LVC: Lassen volcanic center. We wish to acknowledge that the names listed here for the volcanic centers are post-colonial designations; however, each IPOCR has their own name for these and other prominent features in the Cascadia subduction zone.
Published: 01 August 2022
in green text. Volcanic centers are abbreviated as MM: Mount Meager; MC: Mount Cayley; MG: Mount Garibaldi; MB: Mount Baker; GP: Glacier Peak; MR: Mount Rainier; MSH: Mount St. Helens; MA: Mount Adams; MH: Mount Hood; MJ: Mount Jefferson; TS: Three Sisters; NV: Newberry Volcano; CL: Crater Lake Volcano
Series: Geological Society, London, Special Publications
Published: 01 January 2009
DOI: 10.1144/SP320.14
EISBN: 9781862395688
... with the highest landslide and diffusivity rates had the highest late Holocene fluvial sediment yields. We suggest that Quaternary volcanoes represent this end member. Quaternary volcanoes in the area of the former Cordilleran ice sheet in SW British Columbia and NW Washington (Fig.  2 ) include Mount Garibaldi...
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Ordination, using detrended correspondence analysis, of modern pollen surface samples from coastal British Columbia (Pellatt et al. 1997), showing clustering of the five study area samples from Sisters Creek Formation near the Engelmann Spruce – Subalpine Fir zone samples, suggesting strong similarities. MH, Mary Hill; PM, Port Moody; SV, Seymour Valley; HC, Hollyburn Creek; SC, Sisters Creek. CWH, coastal western hemlock; ESSF, Engelmann spruce – subalpine fir. MH-Q, -G, -Ba, -NS, and -Be refer to mountain hemlock zones from Queen Charlotte Islands, Mount Garibaldi, Mount Baker, North Shore (Vancouver), and Berendon Bog, respectively. See Pellat et al. (1997) for locations and elevations.
Published: 11 June 2001
strong similarities. MH, Mary Hill; PM, Port Moody; SV, Seymour Valley; HC, Hollyburn Creek; SC, Sisters Creek. CWH, coastal western hemlock; ESSF, Engelmann spruce – subalpine fir. MH-Q, -G, -Ba, -NS, and -Be refer to mountain hemlock zones from Queen Charlotte Islands, Mount Garibaldi, Mount Baker