Rare earth elements are crucial to modern technology but are challenging to mine due to their geological scarcity. While rare earths are common in the Earth's crust, they are rarely found in economically viable concentrations. Currently, China has a near monopoly on global rare earth element production and exports. As the world's reliance on rare earths for technology grows exponentially, China is in a strong position to control global rare earth markets simply by expanding its mining operations. This reliance on Chinese rare earth production poses economic and national security risks.
Dig It! Rare Earth and Uranium Mining Potential in the StatesALEC
Rare earth and uranium are crucial to modern life in the United States. Rare earths are necessary for a wide array of everyday products from iPhones to advanced medical support to defense equipment, and to our digital society. Uranium fuels 20 percent of our electricity. Fortunately, the United States has the capacity to expand domestic production of both rare earths and uranium, which could reinvigorate our economy, add jobs, and increase revenues to suffering state budgets.
The Energy, Environment and Agriculture Task Force’s publication, titled Dig It! Rare Earth and Uranium Mining Potential in the States, details rare earth and uranium mining reserves and production, reviews permitting and regulatory hurdles, estimates the economic benefit of developing reserves, and highlights the safety and environmental track record of mining.
For more information, please visit www.alec.org.
Dig It! Rare Earth and Uranium Mining Potential in the StatesALEC
Rare earth and uranium are crucial to modern life in the United States. Rare earths are necessary for a wide array of everyday products from iPhones to advanced medical support to defense equipment, and to our digital society. Uranium fuels 20 percent of our electricity. Fortunately, the United States has the capacity to expand domestic production of both rare earths and uranium, which could reinvigorate our economy, add jobs, and increase revenues to suffering state budgets.
The Energy, Environment and Agriculture Task Force’s publication, titled Dig It! Rare Earth and Uranium Mining Potential in the States, details rare earth and uranium mining reserves and production, reviews permitting and regulatory hurdles, estimates the economic benefit of developing reserves, and highlights the safety and environmental track record of mining.
For more information, please visit www.alec.org.
Mineral deposits can be classified as:Mineral resources that are potentially valuable, and for which reasonable prospects exist for eventual economic extraction.Mineral reserves or Ore reserves that are valuable and legally and economically and technically feasible to extract
In common mining terminology, an "ore deposit" by definition must have an 'ore reserve', and may or may not have additional 'resources'
The Tectonic and Metallogenic Framework of Myanmar: A Tethyan mineral systemMYO AUNG Myanmar
Article in Ore Geology Reviews · April 2016
https://www.researchgate.net/publication/301758202_The_tectonic_and_metallogenic_framework_of_Myanmar_A_Tethyan_mineral_system
1st Nicholas Gardiner
18.94 · Curtin University
2nd Laurence Robb
34.91 · University of Oxford
+ 5
3rd Christopher K. Morley
40.58 · Chiang Mai University
Last Tin Aung Myint
Abstract
Myanmar is perhaps one of the world's most prospective but least explored minerals jurisdictions, containing important known deposits of tin, tungsten, copper, gold, zinc, lead, nickel, silver, jade and gemstones. A scarcity of recent geological mapping available in published form, coupled with an unfavourable political climate, has resulted in the fact that, although characterized by several world-class deposits, the nation's mineral resource sector is underdeveloped. As well as representing a potential new search space for a range of commodities, many of Myanmar's known existing mineral deposits remain highly prospective. Myanmar lies at a crucial geologic juncture, immediately south of the Eastern Himalayan Syntaxis, however it remains geologically enigmatic. Its Mesozoic-Recent geological history is dominated by several orogenic events representing the closing of the Tethys Ocean. We present new zircon U-Pb age data related to several styles of mineralization within Myanmar. We outline a tectonic model for Myanmar from the Late Cretaceous onwards, and document nine major mineralization styles representing a range of commodities found within the country. We propose a metallogenetic model that places the genesis of many of these metallotects within the framework of the subduction and suturing of Neo-Tethys and the subsequent Himalayan Orogeny. Temporal overlap of favourable conditions for the formation of particular deposit types during orogenic progression permits the genesis of differing metallotects during the same orogenic event. We suggest the evolution of these favourable conditions and resulting genesis of much of Myanmar's mineral deposits, represents a single, evolving, mineral system: the subduction and suturing of Neo-Tethys.
Introduction of geoscience/ what is geoscience? Jahangir Alam
Geology and Other Sciences
Difference between Geo-science and Geology
What Geoscientists are?
Career Path
Scientific Principles in Geology
- Parsimony
- Superposition
- Uniformitarianism
Introduction to Geoscience
Course 5113 introduces the fundamental character of the physical Earth; how it was formed and developed over time. Students will study the processes by which igneous, sedimentary, and metamorphic rocks form and the type of landforms, for example volcanoes, produced by such processes. The nature and formation of the sea floor, the continents, and the mountain belts of the world will be studied in terms of the theory of plate tectonics, which describes how the outer part of the Earth is broken into large fragments (plates) that are in continuous motion relative to each other. One consequence of this motion is the buildup of stress and strain within the crust and underlying mantle, resulting in the generation of earthquakes.
The LCM Rare Earths News Review is a monthly report compiled for London Commodity Markets to provide a snapshot of the state of the global rare earth elements industry.
The immediate future of humanity, in my opinion, must not be projected towards the conquest of space but must be directed towards the subsoil of the earth. From now until 2050, the demand for minerals will increase by more than 300% and extraction will grow at unprecedented rates.
Worldwide there is already a real "hunting" for new materials, in particular those called "rare earths", because they can replace, as already happens in certain industrial and strategic sectors [1] those that are normally used as a source of energy together with other minerals [2], always present in the subsoil, but less valuable.
Rare earths and rare metals are not often covered by the mainstream media, and because you can’t actually see them, most people are totally unaware of the importance they play in our daily lives – and how important they will be in the future.
Rare earths are used to make semiconductors, very powerful magnets for wind turbines, computer hard drives, electric vehicles, speakers, etc.
The following article is a overview of the staking rush underway in British Columbia throughout the Rocky Mountain Rare Metal Belt.
Mineral deposits can be classified as:Mineral resources that are potentially valuable, and for which reasonable prospects exist for eventual economic extraction.Mineral reserves or Ore reserves that are valuable and legally and economically and technically feasible to extract
In common mining terminology, an "ore deposit" by definition must have an 'ore reserve', and may or may not have additional 'resources'
The Tectonic and Metallogenic Framework of Myanmar: A Tethyan mineral systemMYO AUNG Myanmar
Article in Ore Geology Reviews · April 2016
https://www.researchgate.net/publication/301758202_The_tectonic_and_metallogenic_framework_of_Myanmar_A_Tethyan_mineral_system
1st Nicholas Gardiner
18.94 · Curtin University
2nd Laurence Robb
34.91 · University of Oxford
+ 5
3rd Christopher K. Morley
40.58 · Chiang Mai University
Last Tin Aung Myint
Abstract
Myanmar is perhaps one of the world's most prospective but least explored minerals jurisdictions, containing important known deposits of tin, tungsten, copper, gold, zinc, lead, nickel, silver, jade and gemstones. A scarcity of recent geological mapping available in published form, coupled with an unfavourable political climate, has resulted in the fact that, although characterized by several world-class deposits, the nation's mineral resource sector is underdeveloped. As well as representing a potential new search space for a range of commodities, many of Myanmar's known existing mineral deposits remain highly prospective. Myanmar lies at a crucial geologic juncture, immediately south of the Eastern Himalayan Syntaxis, however it remains geologically enigmatic. Its Mesozoic-Recent geological history is dominated by several orogenic events representing the closing of the Tethys Ocean. We present new zircon U-Pb age data related to several styles of mineralization within Myanmar. We outline a tectonic model for Myanmar from the Late Cretaceous onwards, and document nine major mineralization styles representing a range of commodities found within the country. We propose a metallogenetic model that places the genesis of many of these metallotects within the framework of the subduction and suturing of Neo-Tethys and the subsequent Himalayan Orogeny. Temporal overlap of favourable conditions for the formation of particular deposit types during orogenic progression permits the genesis of differing metallotects during the same orogenic event. We suggest the evolution of these favourable conditions and resulting genesis of much of Myanmar's mineral deposits, represents a single, evolving, mineral system: the subduction and suturing of Neo-Tethys.
Introduction of geoscience/ what is geoscience? Jahangir Alam
Geology and Other Sciences
Difference between Geo-science and Geology
What Geoscientists are?
Career Path
Scientific Principles in Geology
- Parsimony
- Superposition
- Uniformitarianism
Introduction to Geoscience
Course 5113 introduces the fundamental character of the physical Earth; how it was formed and developed over time. Students will study the processes by which igneous, sedimentary, and metamorphic rocks form and the type of landforms, for example volcanoes, produced by such processes. The nature and formation of the sea floor, the continents, and the mountain belts of the world will be studied in terms of the theory of plate tectonics, which describes how the outer part of the Earth is broken into large fragments (plates) that are in continuous motion relative to each other. One consequence of this motion is the buildup of stress and strain within the crust and underlying mantle, resulting in the generation of earthquakes.
The LCM Rare Earths News Review is a monthly report compiled for London Commodity Markets to provide a snapshot of the state of the global rare earth elements industry.
The immediate future of humanity, in my opinion, must not be projected towards the conquest of space but must be directed towards the subsoil of the earth. From now until 2050, the demand for minerals will increase by more than 300% and extraction will grow at unprecedented rates.
Worldwide there is already a real "hunting" for new materials, in particular those called "rare earths", because they can replace, as already happens in certain industrial and strategic sectors [1] those that are normally used as a source of energy together with other minerals [2], always present in the subsoil, but less valuable.
Rare earths and rare metals are not often covered by the mainstream media, and because you can’t actually see them, most people are totally unaware of the importance they play in our daily lives – and how important they will be in the future.
Rare earths are used to make semiconductors, very powerful magnets for wind turbines, computer hard drives, electric vehicles, speakers, etc.
The following article is a overview of the staking rush underway in British Columbia throughout the Rocky Mountain Rare Metal Belt.
1. THE IMPORTANCE OF
GEOLOGY IN THE WORLD
ECONOMY:
The Search for Rare Earth Elements
By Aaron Malecki
Aaron Malecki Advisor
Studying for B.S. Geology at Dr. John Renton
West Virginia University (304) 293-5603
john.renton@mail.wvu.edu
ammalecki@mix.wvu.edu
102 Briarwood Drive
Sarver, PA 16055
(724) 816-2008
2. 1
The Importance of Geology in the World Economy:
The Search for Rare Earth Elements
If one where to analyze how geological resources plays a role in our global economy, the
main trending issues of today’s world would more than likely include some sort of commodity
like crude oil, coal, or even gold or ore. However, the most overseen and needed resource is that
of rare earth elements.
Rare earths are the 17 different elements that comprise the lanthanides series on the
periodic table in addition to scandium, yttrium, and lanthanum. These 17 elements are crucial to
modern life as we know it (Van Gosen). Everything from the smart phone in your pocket to
immense windmills and high tech military technology is reliant on the uses of these materials to
make their electronics tick.
Despite their name, rare earth’s are not necessarily rare and are actually quite common
throughout the crust. Their true rareness is found in quantities large enough to be considered
economically minable. Due to the small number of existing high concentration deposits, there
are only a small number of profiting active REE mines. The only currently operating rare earth
element mine in the United States is the Mountain Pass mine in San Bernardino, California
which sits upon a 1.4 billion year old Precambrian intrusion of these precious metals. The mine
is currently owned by Molycorp Minerals LLC (formerly Molybdenum Corporation of America).
For the entire second half of the 20th
century the Mountain Pass mine was responsible for the
majority of rare earth elements mined across the globe. However, due to the toxic byproducts of
refining REE’s, environmental regulations soon took over which caused the Mountain Pass
surface mine to shut down for a decade before its slow reopening in early 2011 (MolyCorp).
Unfortunately, a lot had changed in that time. As technology grows at an exponential
rate, so does the need and reliance for rare earth elements. With the total cessation of U.S. REE
exports at the time, China, the rising industrial juggernaut, stepped in to fill the void. China had
been steadily increasing mining production for years, however, the Mountain Pass hiatus paved
the way for its domination. With virtually no regulation and little contempt for the ecological
repercussions, China could become the dominant exporter of REE’s for years to come.
As previously stated, all of modern civilization is a slave to these elements to make life
possible. Anyone who has taken any course in economics knows why this would be a problem.
Not only does China have a virtual monopoly on a material, but one necessary to civilization as
well as national defense. Should the U.S. become engaged in a war with a country like China,
our strained access to REE’s could shift power to an unexpected level.
As it stands, world dependence on rare earth’s puts China in a very pretty position to be
cornering economic markets. China has control of point zero of almost all global markets simply
because it chose to put steel to dirt and start digging.
3. 2
Works Cited
"Molycorp Mountain Pass." Molycorp. Web. 12 Feb. 2016.
Van Gosen, B.S., Verplanck, P.L., Long, K.R., Gambogi, Joseph, and Seal, R.R., II, 2014, The
rare-earth elements—Vital to modern technologies and lifestyles: U.S. Geological Survey
Fact Sheet 2014–3078, 4 p., http://dx.doi.org/10.3133/fs20143078.