Mount Rainier as viewed from the northeast.
|Elevation||14,411 ft (4,392 m) NGVD 29|
|Prominence||13,211 ft (4,027 m)
|Listing||U.S. state high point
|Mount Rainier National Park, Pierce County, Washington, U.S.|
|Topo map||USGS Mount Rainier West|
|Age of rock||500,000 years|
|Volcanic arc||Cascade Volcanic Arc|
|First ascent||1870 by Hazard Stevens and P. B. Van Trump|
|Easiest route||rock/ice climb via Disappointment Cleaver|
Mount Rainier is a massive stratovolcano located 54 miles (87 km) southeast of Seattle in the state of Washington, United States. It is the most topographically prominent mountain in the contiguous United States and the Cascade Volcanic Arc, with a summit elevation of 14,411 ft (4,392 m). Mt. Rainier is considered one of the most dangerous volcanoes in the world, and it is on the Decade Volcano list. Because of its large amount of glacial ice, Mt. Rainier could potentially produce massive lahars that would threaten the whole Puyallup River valley.
Geographical setting 
Mount Rainier is the highest mountain in Washington and the Cascade Range. Mount Rainier has a topographic prominence of 13,211 ft (4,027 m), greater than K2 at 13,189 ft (4,020 m). On clear days it dominates the southeastern horizon in most of the Seattle-Tacoma metropolitan area to such an extent that locals sometimes refer to it simply as "the Mountain." On days of exceptional clarity, it can also be seen from as far away as Portland, Oregon and Victoria, British Columbia.
With 26 major glaciers and 36 sq mi (93 km2) of permanent snowfields and glaciers, Mount Rainier is the most heavily glaciated peak in the lower 48 states. The summit is topped by two volcanic craters, each more than 1,000 ft (300 m) in diameter with the larger east crater overlapping the west crater. Geothermal heat from the volcano keeps areas of both crater rims free of snow and ice, and has formed the world's largest volcanic glacier cave network within the ice-filled craters, with nearly 2 mi (3.2 km) of passages. A small crater lake about 130 by 30 ft (40 by 9.1 m) in size and 16 ft (5 m) deep, the highest in North America with a surface elevation of 14,203 ft (4,329 m), occupies the lowest portion of the west crater below more than 100 ft (30 m) of ice and is accessible only via the caves.
The Carbon, Puyallup, Mowich, Nisqually, and Cowlitz Rivers begin at eponymous glaciers of Mount Rainier. The sources of the White River are Winthrop, Emmons, and Fryingpan Glaciers. The White, Carbon, and Mowich join the Puyallup River, which discharges into Commencement Bay at Tacoma; the Nisqually empties into Puget Sound east of Lacey; and the Cowlitz joins the Columbia River between Kelso and Longview.
Subsidiary peaks 
The broad top of Mount Rainier contains three named summits. The highest is called the Columbia Crest. The second highest summit is Point Success, 14,158 ft (4,315 m), at the southern edge of the summit plateau, atop the ridge known as Success Cleaver. It has a topographic prominence of about 138 ft (42 m), so it is not considered a separate peak. The lowest of the three summits is Liberty Cap, 14,112 ft (4,301 m), at the northwestern edge, which overlooks Liberty Ridge, the Sunset Amphitheater, and the dramatic Willis Wall. Liberty Cap has a prominence of 492 ft (150 m), and so would qualify as a separate peak under most of strictly prominence-based rules. A prominence cutoff of 400 ft (122 m) is commonly used in Washington state.
High on the eastern flank of Mount Rainier is a peak known as Little Tahoma Peak, 11,138 ft (3,395 m), an eroded remnant of the earlier, much higher, Mount Rainier. It has a prominence of 858 ft (262 m), and it is almost never climbed in direct conjunction with Columbia Crest, so it is usually considered a separate peak. If considered separately from Mt. Rainier, Little Tahoma Peak would be the third highest mountain peak in Washington.
Mount Rainier is a stratovolcano in the Cascade Volcanic Arc. Its early lava deposits are estimated at more than 840,000 years old and are part of the Lily Formation (about 2.9 million to 840,000 years ago). The early deposits formed a "proto-Rainier" or an ancestral cone prior to the present-day cone. The present cone is more than 500,000 years old.
The volcano is highly eroded, with glaciers on its slopes, and appears to be made mostly of andesite. Rainier likely once stood even higher than today at about 16,000 ft (4,900 m) before a major debris avalanche and the resulting Osceola Mudflow approximately 5,000 years ago. In the past, Rainier has had large debris avalanches, and has also produced enormous lahars (volcanic mudflows) due to the large amount of glacial ice present. Its lahars have reached all the way to Puget Sound, a distance of more than 30 mi (48 km). Around 5,000 years ago, a large chunk of the volcano slid away and that debris avalanche helped to produce the massive Osceola Mudflow, which went all the way to the site of present-day Tacoma and south Seattle. This massive avalanche of rock and ice removed the top 1,600 ft (500 m) of Rainier, bringing its height down to around 14,100 ft (4,300 m). About 530 to 550 years ago, the Electron Mudflow occurred, although this was not as large-scale as the Osceola Mudflow.
After the major collapse approximately 5,000 years ago, subsequent eruptions of lava and tephra built up the modern summit cone until about as recently as 1,000 years ago. As many as 11 Holocene tephra layers have been found.
Modern activity and the current threat 
Although Mount Rainier is an active volcano, as of 2010[update] there was no evidence of an imminent eruption. However, an eruption could be devastating for all areas surrounding the volcano. Mount Rainier is currently listed as a Decade Volcano, or one of the 16 volcanoes with the greatest likelihood of causing great loss of life and property if eruptive activity resumes. If Mt. Rainier were to erupt as powerfully as Mount St. Helens did in its May 18, 1980 eruption, the effect would be cumulatively greater, because of the far more massive amounts of glacial ice locked on the volcano compared to Mount St. Helens and the vastly more heavily populated areas surrounding Rainier. Lahars from Rainier pose the most risk to life and property, as many communities lie atop older lahar deposits. According to USGS, about 150,000 people live on top of old lahar deposits of Rainier. Not only is there much ice atop the volcano, the volcano is also slowly being weakened by hydrothermal activity. According to Geoff Clayton, a geologist with a Washington State Geology firm, RH2 Engineering, a repeat of the Osceola mudflow would destroy Enumclaw, Orting, Kent, Auburn, Puyallup, Sumner and all of Renton. Such a mudflow might also reach down the Duwamish estuary and destroy parts of downtown Seattle, and cause tsunamis in Puget Sound and Lake Washington. Another Cascade Arc volcano with similar hazards is Mount Meager in southwestern British Columbia, Canada, which has produced several large landslides in the past 8,000 years, as well as an eruption 2,350 years ago that was similar in size to Mount St. Helens' 1980 eruption. Rainier is also capable of producing pyroclastic flows and expelling lava.
According to K. Scott, a scientist with the USGS:
"A home built in any of the probabilistically defined inundation areas on the new maps is more likely to be damaged or destroyed by a lahar than by fire...For example, a home built in an area that would be inundated every 100 years, on the average, is 27 times more likely to be damaged or destroyed by a flow than by fire. People know the danger of fire, so they buy fire insurance and they have smoke alarms, but most people are not aware of the risks of lahars, and few have applicable flood insurance."
The volcanic risk is somewhat mitigated by lahar warning sirens and escape route signs in Pierce County. The more populous King County is also in the Lahar area, but currently has no zoning restrictions due to volcanic hazard. More recently (since 2001) funding from the federal government for lahar protection in the area has dried up, leading local authorities in at-risk cities like Orting to fear a disaster similar to the Armero tragedy.
Seismic background 
Typically, up to five earthquakes are recorded monthly near the summit. Swarms of five to ten shallow earthquakes over two or three days take place from time to time, predominantly in the region of 13,000 feet (4 km) below the summit. These earthquakes are thought to be caused by the circulation of hot fluids beneath Mount Rainier. Presumably, hot springs and steam vents within Mount Rainier National Park are generated by such fluids. Seismic swarms (not initiated with a mainshock) are common features at volcanoes, and are rarely associated with eruptive activity. Rainier has had several such swarms; there were days-long swarms in 2002, 2004, and 2007, two of which (2002 and 2004) included M 3.2 earthquakes. A 2009 swarm produced the largest number of events of any swarm at Rainier since seismic monitoring began over two decades earlier. Yet another swarm was observed in 2011.
Glaciers are among the most conspicuous and dynamic geologic features on Mount Rainier. They erode the volcanic cone and are important sources of streamflow for several rivers, including some that provide water for hydroelectric power and irrigation. Together with perennial snow patches, the 26 major glaciers cover about 36 square miles (93 km2) of the mountain's surface and have a volume of about 1 cubic mile (4.2 km3).
Glaciers flow under the influence of gravity by the combined action of sliding over the rock on which they lie and by deformation, the gradual displacement between and within individual ice crystals. Maximum speeds occur near the surface and along the centerline of the glacier. During May 1970, Nisqually Glacier was measured moving as fast as 29 inches (74 cm) per day. Flow rates are generally greater in summer than in winter, probably due to the presence of large quantities of meltwater at the glacier base.
The size of glaciers on Mount Rainier has fluctuated significantly in the past. For example, during the last ice age, from about 25,000 to about 15,000 years ago, glaciers covered most of the area now within the boundaries of Mount Rainier National Park and extended to the perimeter of the present Puget Sound Basin.
Between the 14th century and 1850, many of the glaciers on Mount Rainier advanced to their farthest extent downvalley since the last ice age. Many advances of this sort occurred worldwide during this time period known to geologists as the Little Ice Age. During the Little Ice Age, the Nisqually Glacier advanced to a position 650 to 800 ft (200 to 240 m) downvalley from the site of the Glacier Bridge, Tahoma and South Tahoma Glaciers merged at the base of Glacier Island, and the terminus of Emmons Glacier reached within 1.2 mi (1.9 km) of the White River Campground.
Retreat of the Little Ice Age glaciers was slow until about 1920 when retreat became more rapid. Between the height of the Little Ice Age and 1950, Mount Rainier's glaciers lost about one-quarter of their length. Beginning in 1950 and continuing through the early 1980s, however, many of the major glaciers advanced in response to relatively cooler temperatures of the mid-century. The Carbon, Cowlitz, Emmons, and Nisqually Glaciers advanced during the late 1970s and early 1980s as a result of high snowfalls during the 1960s and 1970s. Since the early-1980s, however, many glaciers have been thinning and retreating and some advances have slowed.
Human history 
Mount Rainier was first known by the Native Americans as Talol, or Tacoma, from the Lushootseed word [təqʷúʔbəʔ] ("mother of waters") spoken by the Puyallup. Another interpretation is that "Tacoma", effectively means "larger than Koma (Kulshan)". (a name for Mount Baker), cf. "Kobah" (Skagit: qwúbəʔ, "white sentinel", i.e. mountain").
At the time of European contact, the river valleys and other areas near the mountain were inhabited by many Pacific Northwest tribes who hunted and gathered berries in its forests and mountain meadows. These included the Nisqually, Cowlitz, Yakama, Puyallup, and Muckleshoot.
In 1833, Dr. William Fraser Tolmie explored the area looking for medicinal plants. Hazard Stevens and P. B. Van Trump received a hero's welcome in the streets of Olympia after their successful summit climb in 1870. John Muir climbed Mount Rainier in 1888, and although he enjoyed the view, he conceded that it was best appreciated from below. Muir was one of many who advocated protecting the mountain. In 1893, the area was set aside as part of the Pacific Forest Reserve in order to protect its physical/economic resources: timber and watersheds.
Citing the need to also protect scenery and provide for public enjoyment, railroads and local businesses urged the creation of a national park in hopes of increased tourism. On March 2, 1899, President William McKinley established Mount Rainier National Park as America's fifth national park. Congress dedicated the new park "for the benefit and enjoyment of the people" and "... for the preservation from injury or spoliation of all timber, mineral deposits, natural curiosities, or wonders within said park, and their retention in their natural condition."
In 1998, the United States Geological Survey began putting together the Mount Rainier Volcano Lahar Warning System to assist in the emergency evacuation of the Puyallup River valley in the event of a catastrophic debris flow. It is now run by the Pierce County Department of Emergency Management. Tacoma, at the mouth of the Puyallup, is only 37 mi (60 km) west of Rainier, and moderately sized towns such as Puyallup and Orting are only 27 and 20 mi (43 and 32 km) away, respectively.
Naming controversy 
Although "Rainier" had been considered the official name of the mountain, Theodore Winthrop, in his posthumously published 1862 travel book The Canoe and the Saddle, referred to the mountain as "Tacoma" and for a time, both names were used interchangeably, although "Mt. Tacoma" was preferred in the city of Tacoma.
In 1890, the United States Board on Geographic Names declared that the mountain would be known as "Rainier". Following this in 1897, the Pacific Forest Reserve became the Mount Rainier Forest Reserve, and the national park was established three years later. Despite this, there was still a movement to change the mountain's name to "Tacoma" and Congress was still considering a resolution to change the name as late as 1924.
Climbing and recreation 
Mountain climbing on Mount Rainier is difficult, involving traversing the largest glaciers in the U.S. south of Alaska. Most climbers require two to three days to reach the summit. Climbing teams demand experience in glacier travel, self-rescue, and wilderness travel. About 8,000 to 13,000 people attempt the climb each year, about 90% via routes from Camp Muir on the southeast flank. Most of the rest ascend Emmons Glacier via Camp Schurman on the northeast. About half of the attempts are successful, with weather and conditioning being the most common reasons for failure.
The worst mountaineering accident on Mount Rainier occurred in 1981, when eleven people lost their lives in an ice fall on the Ingraham Glacier. This was the largest number of fatalities on Mount Rainier in a single incident since 32 people were killed in a 1946 plane crash on the South Tahoma Glacier.
More recently, the mountain received media attention in 2012, as one of the park rangers lost his life when several climbers were caught in a storm while trying to ascend the mountain. While trying to help load the climbers into a rescue helicopter, the ranger lost his footing, and slid 3700 feet to his death.
About two mountaineering deaths each year occur because of rock and ice fall, avalanche, falls, and hypothermia associated with severe weather (58 reported since and including the 1981 accident through 2010 per American Alpine Club Accidents in North American Mountaineering and the NPS).
Hiking, backcountry skiing, photography, and camping are popular in the park. Hiking trails, including the Wonderland Trail (a 93-mile or 150-kilometre circumnavigation of the peak), provide access to the backcountry. Mount Rainier is also popular for winter sports, including snowshoeing and cross-country skiing.
See also 
- Outline of Washington
- Index of Washington-related articles
- Mountain peaks of North America
- List of U.S. states by elevation
- Bailey Willis, USGS geological engineer, played a key role in getting Mount Rainier designated as a national park, Willis Wall is named after him.
- Hill, Craig (2006-11-16). "Taking the measure of a mountain". The News Tribune. Archived from the original on 2006-11-16. Retrieved 2008-09-16.
- Signani, PLS, Larry (July 19, 2000). "The Height of Accuracy". Point of Beginning (trade magazine) (BNP Media). Retrieved 2008-10-17.
- "World Top 50 by Prominence". Peakbagger.com. Retrieved 2008-11-05.
- "Mount Rainier". Peakbagger.com.
- "Mount Rainier". Geographic Names Information System, U.S. Geological Survey. Retrieved 2008-10-15.
- "Rainier". Global Volcanism Program, Smithsonian Institution. http://www.volcano.si.edu/world/volcano.cfm?vnum=1201-03-. Retrieved 2008-08-27.
- Pronunciation varies somewhat, with /rəˈnɪər/, /reɪˈnɪər/, and /ˈreɪnɪər/ all in use. /reɪˈnɪər/ appears to be preferred locally.
- "Decade Volcanoes". CVO. USGS.
- Driedger, C.L.; K.M. Scott (March 1, 2005). "Mount Rainier – Learning to Live with Volcanic Risk". Fact Sheet 034-02. U.S. Geological Survey. Retrieved 2008-10-30.
- Bruce Barcott (April 27, 1999). "The Mountain is Out". Western Washington University. Archived from the original on January 13, 2009. Retrieved 2007-03-23.
- "View of Rainier". Nature Spot. Archived from the original on 2009-11-03. Retrieved 29 September 2010.
- Topinka, Lyn (2002). "Mount Rainier Glaciers and Glaciations". USGS.
- This article incorporates public domain material from the United States Geological Survey document: Driedger, C.L. "Glaciers on Mount Rainier". Retrieved 2010-04-21. (Open-File Report 92-474).
- Zimbelman, D. R.; Rye, R. O., Landis, G. P. (2000). "Fumaroles in ice caves on the summit of Mount Rainier; preliminary stable isotope, gas, and geochemical studies". Journal of Volcanology and Geothermal Research 97 (1–4): 457–473. Bibcode:2000JVGR...97..457Z. doi:10.1016/S0377-0273(99)00180-8.
- Sandi Doughton (25 October 2007). "Exploring Rainier's summit steam caves". The News Tribune. Retrieved 3 October 2010.
- Kiver, Eugene P.; Mumma, Martin D. (1971). "Summit Firn Caves, Mount Rainier, Washington". Science 173 (3994): 320–322. Bibcode:1971Sci...173..320K. doi:10.1126/science.173.3994.320. PMID 17809214.
- Kiver, Eugene P.; Steele, William K. (1975). "Firn Caves in the Volcanic Craters of Mount Rainier, Washington" (abstract only). The NSS Bulletin 37 (3): 45–55.
- John Roper; Jeff Howbert. "Washington 100 Highest Peaks with 400 feet of prominence". The Northwest Peakbaggers Asylum. Retrieved 2007-03-23.
- "Little Tahoma Peak". Geographic Names Information System, U.S. Geological Survey. Retrieved 2008-11-25.
- "Little Tahoma". Mount Rainier National Park. Retrieved 29 September 2010.
- Wood, C.A.; Kienle, J. (1990). Volcanoes of North America: United States and Canada. Cambridge University Press. pp. 158–160. ISBN 0-521-36469-8.
- Sisson, T.W. (1995). History and Hazards of Mount Rainier, Washington. USGS. Open-File Report 95-642.
- Scott, Kevin M.; Vallance, James W. (1993). "History of landslides and Debris Flows at Mount Rainier". Open-File Report 93-111. USGS.
- Parchman, F. (2005-10-19). "The Super Flood". Seattle Weekly. Retrieved 2008-01-13.
- Crandall, D.R. (1971). "Postglacial Lahars From Mount Rainier Volcano, Washington". U.S. Geological Survey Professional Paper 677.
- Harris, Stephen L. (2005). "Mount Rainier: America's Most Dangerous Volcano". Fire Mountains of the West (3rd ed.). Missoula, Montana: Mountain Press Publishing Company. pp. 299–334. ISBN 0-87842-511-X.
- "Mount Rainier Volcano". United States Geological Survey. 2007-04-27. Retrieved 2010-01-22.
- Handwerk, Brian (25 September 2003). "Rainier Eruption Odds Low, Impact High, Expert Says". National Geographic Ultimate Explorer.
- Malone, S.D.; Moran, S.C. (1995). "Mount Rainier, Washington, USA - IAVCEI "Decade Volcano" - Hazards, Seismicity, and Geophysical Studies". IAVCEI conference on volcanic hazard in densely populated regions.
- Tucker, Rob (23 July 2001). "Lahar: Thousands live in harm's way". Tacoma News Tribune.
- Scott, K.M.; Vallance, J.W.; Pringle, P.T. (1995). "Sedimentology, Behavior, and Hazards of Debris Flows at Mount Rainier, Washington". Geological Survey Professional Paper 1547. USGS.
- Hoblitt, R.P.; J.S. Walder, C.L. Driedger, K.M. Scott, P.T. Pringle, and J.W. Vallance (1998). "Volcano Hazards from Mount Rainier, Washington, Revised". Open-File Report 98-428. USGS.
- Friele, Pierre; Jakob, Matthias; Clague, John (2008). "Georisk: Assessment and Management of Risk for Engineered Systems and Geohazards". Hazard and risk from large landslides from Mount Meager volcano, British Columbia, Canada (Taylor & Francis) 2 (1): 48, 49, 50, 56. ISSN 1749-9518.
- "Map of Canadian volcanoes". Volcanoes of Canada. Natural Resources Canada. 2008-02-13. Archived from the original on 2011-06-29. Retrieved 2011-08-15.
- "Mount Rainier Debris-Flow Maps available from USGS". USGS. Retrieved 29 September 2010.
- "Mount Rainier Volcano Lahar Warning System".
- "Volcanic Hazard Areas". Critical Areas, Stormwater, and Clearing and Grading Ordinances. King County, Washington. Retrieved 2010-05-18.
- "Nevado del Ruiz". Global Volcanism Program, Smithsonian Institution. http://www.volcano.si.edu/world/volcano.cfm?vnum=1501-02%3D. Retrieved June 1, 2010.
- Lahar threat of Mt. Rainier
- The Pacific Northwest Seismic Network (7 December 2006). "Mount Rainier Seismicity Information". Retrieved 28 May 2011.
- Cascades Volcano Observatory (23 September 2006). "Mount Rainier Swarm Report". USGS. Retrieved 28 May 2011.
- "Spate of quakes around Mount Rainier". Seattle Times. 2011-10-17.
- Winsey, H. J. (1888). The Great Northwest. St Paul, MN: Northern News Co. frontpiece.
- "Mowich" is the Chinook Jargon word for "deer"
- Clark, Ella E. (2003-02-03). Indian Legends of the Pacific Northwest. University of California Press. ISBN 0-520-23926-1.
- Beckey, Fred (January 2009). Cascade Alpine Guide. Vol.3 (3rd ed.). Mountaineers Books. ISBN 1-59485-136-0.
- "Historical Notes: Vancouver's Voyage". Mount Rainier Nature Notes 7 (14). 1929. Retrieved 2008-11-09.[dead link]
- Haines, Aubrey L. (1999) . Mountain fever : historic conquests of Rainier. Original publisher: Oregon Historical Society; Republished by University of Washington. ISBN 0-295-97847-3.
- "Hazard Stevens photographs, c. 1840s-1918". University of Oregon Libraries Historic Photograph Collections. University of Oregon. March 2006. Retrieved 2008-05-14.
- "John Muir and Mount Rainier". Arthur Churchill Warner Photographs. 2010. Retrieved 29 September 2010.
- "U.S. Code: Title 16 Chapter 1 Subchapter XI § 91". Legal Information Institute, Cornell University Law School. Retrieved 2008-10-30.
- "U.S. Code: Title 16 Chapter 1 Subchapter XI § 92". Legal Information Institute, Cornell University Law School. Retrieved 2008-10-30.
- Driedger, C.L.; Scott, W.E. (2008). "Mount Rainier - Living Safely With a Volcano in Your Backyard". USGS. Retrieved 2010-09-30.
- "Washington State Quarter". Washington State Arts Commission. Retrieved 2010-05-07.
- Green, Sara Jean (2007-04-12). "Washington quarter makes debut". The Seattle Times. Retrieved 2007-04-12.
- Catton, Theodore (November 30, 2006). National Park, City Playground: Mount Rainier in the Twentieth Century. A Samuel and Althea Stroum Book. Seattle, United States and London, United Kingdom: University of Washington Press. pp. 8–9. ISBN 0-295-98643-3.
- Winthrop, Theodore (1866). "VII. Tacoma". The canoe and the saddle : adventures among the northwestern rivers and forests, and Isthmiana (8th ed.). Boston: Ticknor and Fields. ISBN 0-665-37762-2. Retrieved 2009-03-04.
- "Rainier". Snopes. March 18, 2007. Retrieved 2007-11-30.
- "MORA Climbing Statistics". National Park Service. 30 July 2005. Archived from the original on 2006-01-01.
- "Camp Muir, Mount Rainier, Washington". University of Washington Libraries Digital Collections. University of Washington. Retrieved 2007-09-12.
- Hatcher, Candy (2000-03-30). "Ghosts of Rainier: Icefall in 1981 entombed 11 climbers". The Seattle Post-Intelligencer. Retrieved 2008-11-09.
- Ranger plunges to death on Mount Rainier. June 22, 2012. CNN
- Park ranger falls 3,700 feet to death during Mount Rainier rescue. June 22, 2012. Miguel Llanos, NBC News
- "Backcountry Skiing Guide to Mount Rainier, Washington". Retrieved 2010-04-10.
- "Scientific Exploration Of Mount Rainier". Mount Rainier: Its Human History Associations. National Park Service. Retrieved 2013-02-18.
|Wikimedia Commons has media related to: Mount Rainier|
- Mount Rainier National Park (also used as a reference)
- "Mount Rainier Volcano Lahar Warning System". Volcano Hazards Program. USGS. Archived from the original on 2008-01-19. Retrieved 2008-10-30.
- Mt. Rainier Eruption Task Force pdf
- Mount Rainier stream drainage
- Mount Rainier Trail Descriptions
- "Mount Rainier". SummitPost.org. http://www.summitpost.org/page/150291. Retrieved 2011-05-07.
- Mount Rainier National Park at the Open Directory Project
University of Washington Libraries, Digital Collections:
- Lawrence Denny Lindsley Photographs, Landscape and nature photography of Lawrence Denny Lindsley, including photographs of scenes around Mount Rainier.
- The Mountaineers Collection, Photographic albums and text documenting the Mountaineers official annual outings undertaken by club members from 1907–1951, includes 3 Mt. Rainier albums (ca. 1912, 1919, 1924).
- Henry M. Sarvant Photographs, photographs by Henry Mason Sarvant depicting his climbing expeditions to Mt. Rainier and scenes of the vicinity from 1892-1912.
- Alvin H. Waite Photographs Photographs of Mt. Rainier by Alvin H. Waite, during the late 19th and early 20th centuries.