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1065 East Main Street in Panaca, Nevada
Behind the chapel is the Uvada Stake Bishops’ Storehouse with Nevada historic marker #182 on it.





25 Saturday Feb 2023
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1065 East Main Street in Panaca, Nevada
Behind the chapel is the Uvada Stake Bishops’ Storehouse with Nevada historic marker #182 on it.
25 Saturday Feb 2023
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Just a placeholder until I can hike up and get some better documentation of the letter L above Panaca, Nevada for Lincoln County High School.
Check out my collection of hillside/mountainside letters and words.
28 Saturday Jan 2023
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inPanaca Spring
The large constant flow of warm water from this spring created the desert oasis of Meadow Valley. First noted by Manley’s ill-fated Death Valley Party in 1849, the site was cultivated in 1858 by Brigham Young’s White Mountain Mission Men, who sought a desert refuge should a federal invasion of Utah occur. The site was abandoned that same year, when the federal government quelled the Mormon resistance.
Dependent on these spring waters, Mormons built the first permanent settlement in southern Nevada at Panaca in 1864. For 80 years, all domestic needs depended on this water.
The Meadow Valley Mining District, including the Pioche area, was organized in 1864 with its center at Panaca Spring.
This is Nevada State Historical Marker #160, located at Pioneer Park at 397 North 5th Street in Panaca, Nevada.
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27 Friday Jan 2023
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inPanaca
Southern Nevada’s first permanent settlement was established as a Mormon colony by Francis C. Lee and others in 1864. Poor in resources, but rich in people, Panaca has changed little through the years. Although mining at nearby Bullionville and Pioche has had its effect, Panaca remains an agricultural community.
The post office was established in 1867, moved to Bullionville in 1874, and returned in 1879. During the 1870s, coke ovens produced charcoal here for the smelters at Bullionville.
Originally located in Washington County, Utah, Panaca became part of Nevada by an act of Congress, dated May 5, 1866. As the boundary was not then surveyed, a dispute arose over taxes levied by Lincoln County, Nevada. The matter settled in favor of the Panaca citizenry on December 4, 1871, after a long period of bitter litigation.
This is Nevada State Historical Marker #39, located in front of the post office at 1046 East Main Street in Panaca, Nevada.
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27 Friday Jan 2023
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inPanaca Ward Chapel
One of the oldest buildings in Lincoln County, the Panaca Ward Chapel was constructed of adobe from the swamps west of town in 1867-1868.
Built as a Mormon chapel, the building was also used as a school and recreation hall. The chapel is typical of the development in small Mormon pioneer communities in the intermountain West during the mid-1800s.
This is Nevada State Historical Marker #182, located on the Bishops’ Storehouse behind the chapel at 1065 East Main Street in Panaca, Nevada.
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04 Sunday Dec 2016
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Panaca was southern Nevada’s first permanent settlement, founded as a Mormon colony in 1864. It was originally part of Washington County, Utah, but the congressional redrawing of boundaries in 1866 shifted Panaca into Nevada. It is the only community in Nevada to be “dry” (forbidding the sale of alcoholic beverages), and the only community in Nevada besides Boulder City that prohibits gambling.
Coke ovens here once produced charcoal for the smelters in nearby Bullionville (now a ghost town), but the town’s economy is predominantly agricultural.
The name “Panaca” comes from the Southern Paiute word Pan-nuk-ker, which means “metal, money, wealth”. William Hamblin, a Mormon missionary to the Paiutes, established the Panacker Ledge (Panaca Claim) silver mine there in 1864.
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15 Thursday Sep 2016
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inThis building, popularly known as the Panaca Co-op, was constructed of adobe in 1868, by the (Mormon) “Panaca Cooperative Mercantile Institution” comprising more than 100 stock holders—to meet barter, merchandising and marketing needs. Wagons from Salt Lake drawn by six-mule teams, carried stocks to, and produce from, Panaca and way stations.
See other Nevada Historic Markers here.
18 Wednesday Jun 2014
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A natural arch is a natural formation (or landform) where a rock arch forms, with a natural passageway through underneath. Most natural arches form as a narrow ridge, walled by cliffs, become narrower from erosion, with a softer rock stratum under the cliff-forming stratum gradually eroding out until the rock shelters thus formed meet underneath the ridge, thus forming the arch. Natural arches commonly form where cliffs are subject to erosion from the sea, rivers or weathering (sub-aerial processes); the processes “find” weaknesses in rocks and work on them, making them bigger until they break through.
The Following is from Wikipedia.com‘s Natural Arch Page :
Weather-eroded Arches
This arch, is located near Panaca, Nevada, A drive and a short walk allows you to climb up quickly and see the awesome work of nature.
This arch is made of local Bentonite.
Bentonite is an absorbent aluminium phyllosilicate generally impure clay consisting mostly of montmorillonite. There are a few types of bentonites and their names depend on the dominant elements, such as K, Na, Ca, and Al. As noted in several places in the geologic literature, there are some nomenclatorial problems with the classification of bentonite clays. Bentonite usually forms from weathering of volcanic ash, most often in the presence of water. However, the term bentonite, as well as a similar clay called tonstein, have been used for clay beds of uncertain origin. For industrial purposes, two main classes of bentonite exist: sodium and calcium bentonite. In stratigraphy and tephrochronology, completely devitrified (weathered volcanic glass) ash-fall beds are commonly referred to as K-bentonites when the dominant clay species is illite. Other common clay species, and sometimes dominant, are montmorillinite and kaolinite. Kaolinite dominated clays are commonly referred to as tonsteins and are typically associated with coal.
Sodium bentonite
Sodium bentonite expands when wet, possibly absorbing several times its dry mass in water. It is often used in drilling mud for oil and gas wells and for geotechnical and environmental investigations.
The property of swelling also makes sodium bentonite useful as a sealant, especially for the sealing of subsurface disposal systems for spent nuclear fuel and for quarantining metal pollutants of groundwater. Similar uses include making slurry walls, waterproofing of below-grade walls and forming other impermeable barriers (e.g. to plug old wells or as a liner in the base of landfills to prevent migration of leachate into the soil).
Sodium bentonite can also be “sandwiched” between synthetic materials to create geo-synthetic liners for the aforementioned purposes. This technique allows for more convenient transport and installation and it greatly reduces the volume of sodium bentonite required.
Calcium bentonite
Calcium bentonite may be converted to sodium bentonite and exhibit sodium bentonite’s properties by a process known as “ion exchange”. Commonly this means adding 5-10% of sodium carbonate to wet bentonite, mixing well, and allowing time for the ion exchange to take place. Pascalite is a commercial name for the calcium bentonite clay.
Uses for both types
Much of bentonite’s usefulness in the drilling and geotechnical engineering industry comes from its unique rheological properties. Relatively small quantities of bentonite suspended in water form a viscous, shear thinning material. Most often, bentonite suspensions are also thixotropic, although rare cases of rheopectic behavior have also been reported. At high enough concentrations (~60 grams of bentonite per litre of suspension), bentonite suspensions begin to take on the characteristics of a gel (a fluid with a minimum yield strength required to make it move). For these reasons it is a common component of drilling mud used to curtail drilling fluid invasion by its propensity for aiding in the formation of mud cake.
Bentonite can be used in cement, adhesives, ceramic bodies, cosmetics and cat litter. Fuller’s earth, an ancient dry cleaning substance, is finely ground bentonite, typically used for purifying transformer oil. Bentonite, in small percentages, is used as an ingredient in commercially designed clay bodies and ceramic glazes. Bentonite clay is also used in pyrotechnics to make end plugs and rocket nozzles, and can also be used as a therapeutic face pack for the treatment of acne/oily skin.
The ionic surface of bentonite has a useful property in making a sticky coating on sand grains. When a small proportion of finely ground bentonite clay is added to hard sand and wetted, the clay binds the sand particles into a moldable aggregate known as green sand used for making molds in sand casting. Some river deltas naturally deposit just such a blend of such clay silt and sand, creating a natural source of excellent molding sand that was critical to ancient metalworking technology. Modern chemical processes to modify the ionic surface of bentonite greatly intensify this stickiness, resulting in remarkably dough-like yet strong casting sand mixes that stand up to molten metal temperatures.
The same effluvial deposition of bentonite clay onto beaches accounts for the variety of plasticity of sand from place to place for building sand castles. Beach sand consisting of only silica and shell grains does not mold well compared to grains coated with bentonite clay. This is why some beaches are so much better for building sand castles than others.
The self-stickiness of bentonite allows high-pressure ramming or pressing of the clay in molds to produce hard, refractory shapes, such as model rocket nozzles. Indeed, to test whether a particular brand of cat litter is bentonite, simply ram a sample with a hammer into a sturdy tube with a close-fitting rod; bentonite will form a very hard, consolidated plug that is not easily crumbled.
Bentonite also has the interesting property of adsorbing relatively large amounts of protein molecules from aqueous solutions. It is therefore uniquely useful in the process of winemaking, where it is used to remove excessive amounts of protein from white wines. Were it not for this use of bentonite, many or most white wines would precipitate undesirable flocculent clouds or hazes upon exposure to warmer temperatures, as these proteins denature. It also has the incidental use of inducing more rapid clarification of both red and white wines.