- published: 21 Jul 2018
- views: 187765
Dysprosium
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in nature as a free element, though it is found in various minerals, such as xenotime. Naturally occurring dysprosium is composed of seven isotopes, the most abundant of which is 164Dy.
Dysprosium was first identified in 1886 by Paul Émile Lecoq de Boisbaudran, but was not isolated in pure form until the development of ion exchange techniques in the 1950s. Dysprosium is used for its high thermal neutron absorption cross-section in making control rods in nuclear reactors, for its high magnetic susceptibility in data storage applications, and as a component of Terfenol-D. Soluble dysprosium salts are mildly toxic, while the insoluble salts are considered non-toxic.
Characteristics
Physical properties
Dysprosium is a rare earth element that has a metallic, bright silver luster. It is soft enough to be cut with a knife, and can be machined without sparking if overheating is avoided. Dysprosium's physical characteristics can be greatly affected by even small amounts of impurities.
This page contains text from Wikipedia, the Free Encyclopedia - https://wn.com/Dysprosium
Isotopes of dysprosium
Naturally occurring dysprosium (Dy) is composed of 7 stable isotopes, 156Dy, 158Dy, 160Dy, 161Dy, 162Dy, 163Dy and 164Dy, with 164Dy being the most abundant (28.18% natural abundance). Twenty-nine radioisotopes have been characterized, with the most stable being 154Dy with a half-life of 3.0 million years, 159Dy with a half-life of 144.4 days, and 166Dy with a half-life of 81.6 hours. All of the remaining radioactive isotopes have half-lives that are less than 10 hours, and the majority of these have half-lives that are less than 30 seconds. This element also has 12 meta states, with the most stable being 165mDy (t1/2 1.257 minutes), 147mDy (t1/2 55.7 seconds) and 145mDy (t1/2 13.6 seconds).
The primary decay mode before the most abundant stable isotope, 164Dy, is electron capture, and the primary mode after is beta decay. The primary decay products before 164Dy are terbium isotopes, and the primary products after are holmium isotopes.
Relative atomic mass: 162.500(1).
This page contains text from Wikipedia, the Free Encyclopedia - https://wn.com/Isotopes_of_dysprosium
Podcasts:
-
Dysprosium - THE MOST MUSICAL METAL ON EARTH!
Patreon: https://www.patreon.com/Thoisoi?ty=h Facebook: https://www.facebook.com/thoisoi2 Instagram: https://www.instagram.com/thoisoi/ Do not repeat the experiments shown in this video! Today I am gonna tell you about a quite unusual metal - dysprosium. As it is clear from the element’s unusual name dysprosium belongs to the lanthanide series where it is preceded by terbium. Like other rare-earth metals dysprosium can be found in various minerals such as xenotime, monazite, gadolinite. The name dysposium is derived from the Greek 'dysprositos', meaning hard to get because it is very hard to extract pure metal from its ore and separate it from other metals. Pure dysposium is a gray metal. My sample is pretty old and has covered in gray oxide layer. Dysprosium is a pretty expensive metal an...
published: 21 Jul 2018 -
Dysprosium - Periodic Table of Videos
Dysprosium is element number 66 on the periodic table. More links in description below ↓↓↓ Support Periodic Videos on Patreon: https://www.patreon.com/periodicvideos A video on every element: http://bit.ly/118elements More at http://www.periodicvideos.com/ Follow us on Facebook at http://www.facebook.com/periodicvideos And on Twitter at http://twitter.com/periodicvideos From the School of Chemistry at The University of Nottingham: http://bit.ly/NottChem Periodic Videos films are by video journalist Brady Haran: http://www.bradyharanblog.com Join Brady's mailing list for updates and extra stuff --- http://eepurl.com/YdjL9
published: 01 Jul 2008 -
Dysprosium Curie Point Demonstration
I show how the element Dysprosium becomes magnetic when added to liquid nitrogen. Many people have been asking how it gets the energy to run, I've been thinking about this and I believe that it gains its energy from the increase in entropy as the nitrogen boils into a gas while cooling the metal. The cooling decreases the entropy of the metal allowing it to be attracted by the magnet and do work, but Since the gas is escaping the system and increasing the entropy of the universe, it does not violate thermodynamics. Sorry about the audio, Ive looked into it and its not getting any better, I'll see If I can do the next video differently.
published: 11 Jan 2016 -
Dysprosium
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in nature as a free element, though it is found in various minerals, such as xenotime. Naturally occurring dysprosium is composed of seven isotopes, the most abundant of which is 164Dy. Dysprosium was first identified in 1886 by Paul Émile Lecoq de Boisbaudran, but was not isolated in pure form until the development of ion exchange techniques in the 1950s. Dysprosium is used for its high thermal neutron absorption cross-section in making control rods in nuclear reactors, for its high magnetic susceptibility in data storage applications, and as a component of Terfenol-D. Soluble dysprosium salts are mildly toxic, while the insoluble sa...
published: 22 Dec 2015 -
Dysprosium
Provided to YouTube by Triple Vision Record Distribution Dysprosium · Atsushi Izumi Snow ℗ Subtrakt Released on: 2018-05-15 Artist: Atsushi Izumi Auto-generated by YouTube.
published: 14 May 2018 -
Dysprosium
Provided to YouTube by Fandalism Dysprosium · Futurism Dysprosium ℗ 915883 Records DK Released on: 2018-07-14 Auto-generated by YouTube.
published: 14 Jul 2018 -
Dysprosium Superconductivity Eliminating Resistance to Progress
Superconductivity -- Eliminating Resistance to Progress In recent years, government regulations on fuel economy have sparked huge changes in the automobile industry, and it is only one of the first of many American industries which will be pushed to reduce CO2 emissions and total energy use as America strives for a greener future. While significant advances have been made in promoting reusable energy sources, the day when all energy produced is renewable is, in all likelihood, far away. Accordingly, a solution is needed which will allow American individuals and industries to consume far less energy in their lives without changing their habits. Such a solution would need to reduce energy use in many areas of society. Superconductors -- materials in which no electrical resistance is pre...
published: 06 May 2014 -
Magnetic Salt - Dysprosium Nitrate
We demonstrate the magnetic properties of dysprosium nitrate. Dysprosium nitrate is paramagnetic and is thus attracted to a magnetic field. The salt itself is clear with a beige/yellow tinge and is thus quite unusual among common magnetic materials that are usually opaque or metallic. By itself dysprosium isn't very useful but can adjust the magnetic properties of other materials and is therefore very useful to make the components of motors, actuators and hard drives.
published: 23 Apr 2012
developed with YouTube
5:36
Dysprosium - THE MOST MUSICAL METAL ON EARTH!
- Order: Reorder
- Duration: 5:36
- Uploaded Date: 21 Jul 2018
- views: 187765
Patreon: https://www.patreon.com/Thoisoi?ty=h
Facebook: https://www.facebook.com/thoisoi2
Instagram: https://www.instagram.com/thoisoi/
Do not repeat the experi...
Patreon: https://www.patreon.com/Thoisoi?ty=h
Facebook: https://www.facebook.com/thoisoi2
Instagram: https://www.instagram.com/thoisoi/
Do not repeat the experiments shown in this video!
Today I am gonna tell you about a quite unusual metal - dysprosium. As it is clear from the element’s unusual name dysprosium belongs to the lanthanide series where it is preceded by terbium. Like other rare-earth metals dysprosium can be found in various minerals such as xenotime, monazite, gadolinite. The name dysposium is derived from the Greek 'dysprositos', meaning hard to get because it is very hard to extract pure metal from its ore and separate it from other metals. Pure dysposium is a gray metal. My sample is pretty old and has covered in gray oxide layer. Dysprosium is a pretty expensive metal and it costs about 20 dollars on ebay. Its physical properties are not that much different from other lanthanides although I have began to question that. For instance a Wikipedia article about the metal in English says that the metal is very soft and that it can even be sliced with a knife. Hm, let us check. I can’t cut it with a knife although it’s possible to cut off a small piece. Probably my sample is just fragile because of its porous structure but it can’t be cut with a knife that is why it is always check if the information is true. Also dysprosium gets attracted to a powerful neodymium magnet quite well, of course not as good as iron. Nevertheless, dysprosium is paramagnetic at room temperatures but if frozen to the temperature of liquid nitrogen it can become ferromagnetic. This property of the metal has applications in a special alloy called terfenol-d the formula of which you can see on your screen. This alloy has a unique property called magnetostriction. To put it simply, if a pole made of this alloy is inserted inside a copper wire coil and alternating current is passed through it, such a pole will be slightly lengthening upon magnetizing and shortening upon demagnetizing. In an alternating magnetic field the pole can quickly change its length and make vibrations that can turn into music! This is where this property of terfenol-d is used - in vibration speakers.
https://wn.com/Dysprosium_The_Most_Musical_Metal_On_Earth
Patreon: https://www.patreon.com/Thoisoi?ty=h
Facebook: https://www.facebook.com/thoisoi2
Instagram: https://www.instagram.com/thoisoi/
Do not repeat the experiments shown in this video!
Today I am gonna tell you about a quite unusual metal - dysprosium. As it is clear from the element’s unusual name dysprosium belongs to the lanthanide series where it is preceded by terbium. Like other rare-earth metals dysprosium can be found in various minerals such as xenotime, monazite, gadolinite. The name dysposium is derived from the Greek 'dysprositos', meaning hard to get because it is very hard to extract pure metal from its ore and separate it from other metals. Pure dysposium is a gray metal. My sample is pretty old and has covered in gray oxide layer. Dysprosium is a pretty expensive metal and it costs about 20 dollars on ebay. Its physical properties are not that much different from other lanthanides although I have began to question that. For instance a Wikipedia article about the metal in English says that the metal is very soft and that it can even be sliced with a knife. Hm, let us check. I can’t cut it with a knife although it’s possible to cut off a small piece. Probably my sample is just fragile because of its porous structure but it can’t be cut with a knife that is why it is always check if the information is true. Also dysprosium gets attracted to a powerful neodymium magnet quite well, of course not as good as iron. Nevertheless, dysprosium is paramagnetic at room temperatures but if frozen to the temperature of liquid nitrogen it can become ferromagnetic. This property of the metal has applications in a special alloy called terfenol-d the formula of which you can see on your screen. This alloy has a unique property called magnetostriction. To put it simply, if a pole made of this alloy is inserted inside a copper wire coil and alternating current is passed through it, such a pole will be slightly lengthening upon magnetizing and shortening upon demagnetizing. In an alternating magnetic field the pole can quickly change its length and make vibrations that can turn into music! This is where this property of terfenol-d is used - in vibration speakers.
1:42
Dysprosium - Periodic Table of Videos
- Order: Reorder
- Duration: 1:42
- Uploaded Date: 01 Jul 2008
- views: 152332
Dysprosium is element number 66 on the periodic table.
More links in description below ↓↓↓
Support Periodic Videos on Patreon: https://www.patreon.com/periodi...
Dysprosium is element number 66 on the periodic table.
More links in description below ↓↓↓
Support Periodic Videos on Patreon: https://www.patreon.com/periodicvideos
A video on every element: http://bit.ly/118elements
More at http://www.periodicvideos.com/
Follow us on Facebook at http://www.facebook.com/periodicvideos
And on Twitter at http://twitter.com/periodicvideos
From the School of Chemistry at The University of Nottingham: http://bit.ly/NottChem
Periodic Videos films are by video journalist Brady Haran: http://www.bradyharanblog.com
Join Brady's mailing list for updates and extra stuff --- http://eepurl.com/YdjL9
https://wn.com/Dysprosium_Periodic_Table_Of_Videos
Dysprosium is element number 66 on the periodic table.
More links in description below ↓↓↓
Support Periodic Videos on Patreon: https://www.patreon.com/periodicvideos
A video on every element: http://bit.ly/118elements
More at http://www.periodicvideos.com/
Follow us on Facebook at http://www.facebook.com/periodicvideos
And on Twitter at http://twitter.com/periodicvideos
From the School of Chemistry at The University of Nottingham: http://bit.ly/NottChem
Periodic Videos films are by video journalist Brady Haran: http://www.bradyharanblog.com
Join Brady's mailing list for updates and extra stuff --- http://eepurl.com/YdjL9
- published: 01 Jul 2008
- views: 152332
2:36
Dysprosium Curie Point Demonstration
- Order: Reorder
- Duration: 2:36
- Uploaded Date: 11 Jan 2016
- views: 90699
I show how the element Dysprosium becomes magnetic when added to liquid nitrogen. Many people have been asking how it gets the energy to run, I've been thinking...
I show how the element Dysprosium becomes magnetic when added to liquid nitrogen. Many people have been asking how it gets the energy to run, I've been thinking about this and I believe that it gains its energy from the increase in entropy as the nitrogen boils into a gas while cooling the metal. The cooling decreases the entropy of the metal allowing it to be attracted by the magnet and do work, but Since the gas is escaping the system and increasing the entropy of the universe, it does not violate thermodynamics.
Sorry about the audio, Ive looked into it and its not getting any better, I'll see If I can do the next video differently.
https://wn.com/Dysprosium_Curie_Point_Demonstration
I show how the element Dysprosium becomes magnetic when added to liquid nitrogen. Many people have been asking how it gets the energy to run, I've been thinking about this and I believe that it gains its energy from the increase in entropy as the nitrogen boils into a gas while cooling the metal. The cooling decreases the entropy of the metal allowing it to be attracted by the magnet and do work, but Since the gas is escaping the system and increasing the entropy of the universe, it does not violate thermodynamics.
Sorry about the audio, Ive looked into it and its not getting any better, I'll see If I can do the next video differently.
- published: 11 Jan 2016
- views: 90699
15:59
Dysprosium
- Order: Reorder
- Duration: 15:59
- Uploaded Date: 22 Dec 2015
- views: 939
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in...
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in nature as a free element, though it is found in various minerals, such as xenotime. Naturally occurring dysprosium is composed of seven isotopes, the most abundant of which is 164Dy.
Dysprosium was first identified in 1886 by Paul Émile Lecoq de Boisbaudran, but was not isolated in pure form until the development of ion exchange techniques in the 1950s. Dysprosium is used for its high thermal neutron absorption cross-section in making control rods in nuclear reactors, for its high magnetic susceptibility in data storage applications, and as a component of Terfenol-D. Soluble dysprosium salts are mildly toxic, while the insoluble salts are considered non-toxic.
This video is targeted to blind users.
Attribution:
Article text available under CC-BY-SA
Creative Commons image source in video
https://wn.com/Dysprosium
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in nature as a free element, though it is found in various minerals, such as xenotime. Naturally occurring dysprosium is composed of seven isotopes, the most abundant of which is 164Dy.
Dysprosium was first identified in 1886 by Paul Émile Lecoq de Boisbaudran, but was not isolated in pure form until the development of ion exchange techniques in the 1950s. Dysprosium is used for its high thermal neutron absorption cross-section in making control rods in nuclear reactors, for its high magnetic susceptibility in data storage applications, and as a component of Terfenol-D. Soluble dysprosium salts are mildly toxic, while the insoluble salts are considered non-toxic.
This video is targeted to blind users.
Attribution:
Article text available under CC-BY-SA
Creative Commons image source in video
- published: 22 Dec 2015
- views: 939
7:30
Dysprosium
- Order: Reorder
- Duration: 7:30
- Uploaded Date: 14 May 2018
- views: 48
Provided to YouTube by Triple Vision Record Distribution
Dysprosium · Atsushi Izumi
Snow
℗ Subtrakt
Released on: 2018-05-15
Artist: Atsushi Izumi
Auto-gen...
Provided to YouTube by Triple Vision Record Distribution
Dysprosium · Atsushi Izumi
Snow
℗ Subtrakt
Released on: 2018-05-15
Artist: Atsushi Izumi
Auto-generated by YouTube.
https://wn.com/Dysprosium
Provided to YouTube by Triple Vision Record Distribution
Dysprosium · Atsushi Izumi
Snow
℗ Subtrakt
Released on: 2018-05-15
Artist: Atsushi Izumi
Auto-generated by YouTube.
- published: 14 May 2018
- views: 48
4:54
Dysprosium
- Order: Reorder
- Duration: 4:54
- Uploaded Date: 14 Jul 2018
- views: 11
Provided to YouTube by Fandalism
Dysprosium · Futurism
Dysprosium
℗ 915883 Records DK
Released on: 2018-07-14
Auto-generated by YouTube.
Provided to YouTube by Fandalism
Dysprosium · Futurism
Dysprosium
℗ 915883 Records DK
Released on: 2018-07-14
Auto-generated by YouTube.
https://wn.com/Dysprosium
Provided to YouTube by Fandalism
Dysprosium · Futurism
Dysprosium
℗ 915883 Records DK
Released on: 2018-07-14
Auto-generated by YouTube.
- published: 14 Jul 2018
- views: 11
8:02
Dysprosium Superconductivity Eliminating Resistance to Progress
- Order: Reorder
- Duration: 8:02
- Uploaded Date: 06 May 2014
- views: 469
Superconductivity -- Eliminating Resistance to Progress
In recent years, government regulations on fuel economy have sparked huge changes in the automobile ind...
Superconductivity -- Eliminating Resistance to Progress
In recent years, government regulations on fuel economy have sparked huge changes in the automobile industry, and it is only one of the first of many American industries which will be pushed to reduce CO2 emissions and total energy use as America strives for a greener future. While significant advances have been made in promoting reusable energy sources, the day when all energy produced is renewable is, in all likelihood, far away. Accordingly, a solution is needed which will allow American individuals and industries to consume far less energy in their lives without changing their habits. Such a solution would need to reduce energy use in many areas of society. Superconductors -- materials in which no electrical resistance is present, and therefore can carry current without loss, present a possible means toward this end. In addition to the advances in power transmission that loss-free current could provide, superconductors also can be used to make extremely powerful, low energy electromagnets. This means that superconductors present a method by which electric motors may be drastically improved, and by which frictional personal transportation energy losses may be drastically reduced, as is the case today in experimental superconducting Mag-Lev trains.
Unfortunately, the method which is used in the Japanese SC-MAGLEV trains today is not feasible for use in roadways, as the superconducting materials used in these systems only operate at temperatures around -170 degrees Celsius, and therefore require a constant supply of liquid nitrogen for cooling. This method was only made possible recently, by a ceramic (Yttrium barium copper oxide), as well as several similar ceramics, that have been discovered and demonstrate superconductivity at temperatures above the boiling temperature of liquid nitrogen. These materials therefore allow for superconductivity at a much lower cost than previous under 10 degrees Kelvin, and required liquid Helium cooling. Despite this huge benefit, these materials still could be improved. By finding ways to produce materials that are superconductors at even higher temperatures, the potential cost and complexity of such systems could be further reduced. The ways in which these material improvements can be attained can be understood through basic knowledge of what allows for superconductivity. In superconductive metals, superconductivity can be explained as a sudden transformation in which all of the electrons change at the quantum mechanical level, and move together through the material as one entity, without any resistance. In ceramics, however, this theory fails, and superconductivity is still not fully understood. What engineers do know is that the key to increasing the critical temperature at which the ceramics enter the superconducting state is found in increasing the density of CuO2 planes within the material, as well as increasing grain size. Currently, engineers are using complex heat treatments and combinations of elements to attempt to increase this plane density. If they find greater success, this could result in a material with superconducting properties at room temperature, which would make possible "superconducting highways", loss-free power transmission, and lightweight electric motors.
Song Names:
#1: Untitled by Matt Lockman (featured in video) and Adam Whitener
#2: Breathe Easy Remix by DJ Def Chad
Works Cited
Informational:
1. "American Magnetics." Superconductivity. American Magnetics Inc. 2012. Accessed April 2014. http://www.americanmagnetics.com/supercon.php
2. Cunningham, Justin. "Superconducting material set to improve performance of electric motors." Eureka. Findlay Media. February 2013. Accessed April 2014. http://www.eurekamagazine.co.uk/design-engineering-features/technology/superconducting-material-set-to-improve-performance-of-electric-motors/47910/
3. Grant, Paul Michael. "High-temperature superconductivity: The great quantum conundrum." Nature. August 2011. Accessed April 2014. http://goo.gl/FTeyiM
4. "How are these superconductors made?" Colorado Superconductor, Inc. 2001. Accessed April 2014. http://www.users.qwest.net/~csconductor/Experiment_Guide/How%20our%20superconductors%20are%20made.htm
5. Li Shuang. "Energy Impact of Superconductors." Stanford University. Fall 2010. Accessed April 2014. http://large.stanford.edu/courses/2010/ph240/li1/
6. Livingstone, Paul. "The Business Side Of Superconductivity." R&D Magazine 52.7 (2010): 12-14. Computers & Applied Sciences Complete. Web. 5 May 2014.
Remainder of Works Cited including references to videos used can be found on the google plus page for this channel. (due to 5000 character limit on description)
https://wn.com/Dysprosium_Superconductivity_Eliminating_Resistance_To_Progress
Superconductivity -- Eliminating Resistance to Progress
In recent years, government regulations on fuel economy have sparked huge changes in the automobile industry, and it is only one of the first of many American industries which will be pushed to reduce CO2 emissions and total energy use as America strives for a greener future. While significant advances have been made in promoting reusable energy sources, the day when all energy produced is renewable is, in all likelihood, far away. Accordingly, a solution is needed which will allow American individuals and industries to consume far less energy in their lives without changing their habits. Such a solution would need to reduce energy use in many areas of society. Superconductors -- materials in which no electrical resistance is present, and therefore can carry current without loss, present a possible means toward this end. In addition to the advances in power transmission that loss-free current could provide, superconductors also can be used to make extremely powerful, low energy electromagnets. This means that superconductors present a method by which electric motors may be drastically improved, and by which frictional personal transportation energy losses may be drastically reduced, as is the case today in experimental superconducting Mag-Lev trains.
Unfortunately, the method which is used in the Japanese SC-MAGLEV trains today is not feasible for use in roadways, as the superconducting materials used in these systems only operate at temperatures around -170 degrees Celsius, and therefore require a constant supply of liquid nitrogen for cooling. This method was only made possible recently, by a ceramic (Yttrium barium copper oxide), as well as several similar ceramics, that have been discovered and demonstrate superconductivity at temperatures above the boiling temperature of liquid nitrogen. These materials therefore allow for superconductivity at a much lower cost than previous under 10 degrees Kelvin, and required liquid Helium cooling. Despite this huge benefit, these materials still could be improved. By finding ways to produce materials that are superconductors at even higher temperatures, the potential cost and complexity of such systems could be further reduced. The ways in which these material improvements can be attained can be understood through basic knowledge of what allows for superconductivity. In superconductive metals, superconductivity can be explained as a sudden transformation in which all of the electrons change at the quantum mechanical level, and move together through the material as one entity, without any resistance. In ceramics, however, this theory fails, and superconductivity is still not fully understood. What engineers do know is that the key to increasing the critical temperature at which the ceramics enter the superconducting state is found in increasing the density of CuO2 planes within the material, as well as increasing grain size. Currently, engineers are using complex heat treatments and combinations of elements to attempt to increase this plane density. If they find greater success, this could result in a material with superconducting properties at room temperature, which would make possible "superconducting highways", loss-free power transmission, and lightweight electric motors.
Song Names:
#1: Untitled by Matt Lockman (featured in video) and Adam Whitener
#2: Breathe Easy Remix by DJ Def Chad
Works Cited
Informational:
1. "American Magnetics." Superconductivity. American Magnetics Inc. 2012. Accessed April 2014. http://www.americanmagnetics.com/supercon.php
2. Cunningham, Justin. "Superconducting material set to improve performance of electric motors." Eureka. Findlay Media. February 2013. Accessed April 2014. http://www.eurekamagazine.co.uk/design-engineering-features/technology/superconducting-material-set-to-improve-performance-of-electric-motors/47910/
3. Grant, Paul Michael. "High-temperature superconductivity: The great quantum conundrum." Nature. August 2011. Accessed April 2014. http://goo.gl/FTeyiM
4. "How are these superconductors made?" Colorado Superconductor, Inc. 2001. Accessed April 2014. http://www.users.qwest.net/~csconductor/Experiment_Guide/How%20our%20superconductors%20are%20made.htm
5. Li Shuang. "Energy Impact of Superconductors." Stanford University. Fall 2010. Accessed April 2014. http://large.stanford.edu/courses/2010/ph240/li1/
6. Livingstone, Paul. "The Business Side Of Superconductivity." R&D Magazine 52.7 (2010): 12-14. Computers & Applied Sciences Complete. Web. 5 May 2014.
Remainder of Works Cited including references to videos used can be found on the google plus page for this channel. (due to 5000 character limit on description)
- published: 06 May 2014
- views: 469
0:41
Magnetic Salt - Dysprosium Nitrate
- Order: Reorder
- Duration: 0:41
- Uploaded Date: 23 Apr 2012
- views: 86286
We demonstrate the magnetic properties of dysprosium nitrate.
Dysprosium nitrate is paramagnetic and is thus attracted to a magnetic field. The salt itself is ...
We demonstrate the magnetic properties of dysprosium nitrate.
Dysprosium nitrate is paramagnetic and is thus attracted to a magnetic field. The salt itself is clear with a beige/yellow tinge and is thus quite unusual among common magnetic materials that are usually opaque or metallic. By itself dysprosium isn't very useful but can adjust the magnetic properties of other materials and is therefore very useful to make the components of motors, actuators and hard drives.
https://wn.com/Magnetic_Salt_Dysprosium_Nitrate
We demonstrate the magnetic properties of dysprosium nitrate.
Dysprosium nitrate is paramagnetic and is thus attracted to a magnetic field. The salt itself is clear with a beige/yellow tinge and is thus quite unusual among common magnetic materials that are usually opaque or metallic. By itself dysprosium isn't very useful but can adjust the magnetic properties of other materials and is therefore very useful to make the components of motors, actuators and hard drives.
- published: 23 Apr 2012
- views: 86286
5:36
Dysprosium - THE MOST MUSICAL METAL ON EARTH!
Patreon: https://www.patreon.com/Thoisoi?ty=h
Facebook: https://www.facebook.com/thoisoi2
...
published: 21 Jul 2018
Dysprosium - THE MOST MUSICAL METAL ON EARTH!
Dysprosium - THE MOST MUSICAL METAL ON EARTH!
- Report rights infringement
- published: 21 Jul 2018
- views: 187765
Patreon: https://www.patreon.com/Thoisoi?ty=h
Facebook: https://www.facebook.com/thoisoi2
Instagram: https://www.instagram.com/thoisoi/
Do not repeat the experiments shown in this video!
Today I am gonna tell you about a quite unusual metal - dysprosium. As it is clear from the element’s unusual name dysprosium belongs to the lanthanide series where it is preceded by terbium. Like other rare-earth metals dysprosium can be found in various minerals such as xenotime, monazite, gadolinite. The name dysposium is derived from the Greek 'dysprositos', meaning hard to get because it is very hard to extract pure metal from its ore and separate it from other metals. Pure dysposium is a gray metal. My sample is pretty old and has covered in gray oxide layer. Dysprosium is a pretty expensive metal and it costs about 20 dollars on ebay. Its physical properties are not that much different from other lanthanides although I have began to question that. For instance a Wikipedia article about the metal in English says that the metal is very soft and that it can even be sliced with a knife. Hm, let us check. I can’t cut it with a knife although it’s possible to cut off a small piece. Probably my sample is just fragile because of its porous structure but it can’t be cut with a knife that is why it is always check if the information is true. Also dysprosium gets attracted to a powerful neodymium magnet quite well, of course not as good as iron. Nevertheless, dysprosium is paramagnetic at room temperatures but if frozen to the temperature of liquid nitrogen it can become ferromagnetic. This property of the metal has applications in a special alloy called terfenol-d the formula of which you can see on your screen. This alloy has a unique property called magnetostriction. To put it simply, if a pole made of this alloy is inserted inside a copper wire coil and alternating current is passed through it, such a pole will be slightly lengthening upon magnetizing and shortening upon demagnetizing. In an alternating magnetic field the pole can quickly change its length and make vibrations that can turn into music! This is where this property of terfenol-d is used - in vibration speakers.
1:42
Dysprosium - Periodic Table of Videos
Dysprosium is element number 66 on the periodic table.
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published: 01 Jul 2008
Dysprosium - Periodic Table of Videos
Dysprosium - Periodic Table of Videos
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Dysprosium is element number 66 on the periodic table.
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2:36
Dysprosium Curie Point Demonstration
I show how the element Dysprosium becomes magnetic when added to liquid nitrogen. Many peo...
published: 11 Jan 2016
Dysprosium Curie Point Demonstration
Dysprosium Curie Point Demonstration
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I show how the element Dysprosium becomes magnetic when added to liquid nitrogen. Many people have been asking how it gets the energy to run, I've been thinking about this and I believe that it gains its energy from the increase in entropy as the nitrogen boils into a gas while cooling the metal. The cooling decreases the entropy of the metal allowing it to be attracted by the magnet and do work, but Since the gas is escaping the system and increasing the entropy of the universe, it does not violate thermodynamics.
Sorry about the audio, Ive looked into it and its not getting any better, I'll see If I can do the next video differently.
15:59
Dysprosium
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare ear...
published: 22 Dec 2015
Dysprosium
Dysprosium
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Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in nature as a free element, though it is found in various minerals, such as xenotime. Naturally occurring dysprosium is composed of seven isotopes, the most abundant of which is 164Dy.
Dysprosium was first identified in 1886 by Paul Émile Lecoq de Boisbaudran, but was not isolated in pure form until the development of ion exchange techniques in the 1950s. Dysprosium is used for its high thermal neutron absorption cross-section in making control rods in nuclear reactors, for its high magnetic susceptibility in data storage applications, and as a component of Terfenol-D. Soluble dysprosium salts are mildly toxic, while the insoluble salts are considered non-toxic.
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7:30
Dysprosium
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Dysprosium · Atsushi Izumi
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Dysprosium
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Dysprosium
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Dysprosium · Futurism
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8:02
Dysprosium Superconductivity Eliminating Resistance to Progress
Superconductivity -- Eliminating Resistance to Progress
In recent years, government regul...
published: 06 May 2014
Dysprosium Superconductivity Eliminating Resistance to Progress
Dysprosium Superconductivity Eliminating Resistance to Progress
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Superconductivity -- Eliminating Resistance to Progress
In recent years, government regulations on fuel economy have sparked huge changes in the automobile industry, and it is only one of the first of many American industries which will be pushed to reduce CO2 emissions and total energy use as America strives for a greener future. While significant advances have been made in promoting reusable energy sources, the day when all energy produced is renewable is, in all likelihood, far away. Accordingly, a solution is needed which will allow American individuals and industries to consume far less energy in their lives without changing their habits. Such a solution would need to reduce energy use in many areas of society. Superconductors -- materials in which no electrical resistance is present, and therefore can carry current without loss, present a possible means toward this end. In addition to the advances in power transmission that loss-free current could provide, superconductors also can be used to make extremely powerful, low energy electromagnets. This means that superconductors present a method by which electric motors may be drastically improved, and by which frictional personal transportation energy losses may be drastically reduced, as is the case today in experimental superconducting Mag-Lev trains.
Unfortunately, the method which is used in the Japanese SC-MAGLEV trains today is not feasible for use in roadways, as the superconducting materials used in these systems only operate at temperatures around -170 degrees Celsius, and therefore require a constant supply of liquid nitrogen for cooling. This method was only made possible recently, by a ceramic (Yttrium barium copper oxide), as well as several similar ceramics, that have been discovered and demonstrate superconductivity at temperatures above the boiling temperature of liquid nitrogen. These materials therefore allow for superconductivity at a much lower cost than previous under 10 degrees Kelvin, and required liquid Helium cooling. Despite this huge benefit, these materials still could be improved. By finding ways to produce materials that are superconductors at even higher temperatures, the potential cost and complexity of such systems could be further reduced. The ways in which these material improvements can be attained can be understood through basic knowledge of what allows for superconductivity. In superconductive metals, superconductivity can be explained as a sudden transformation in which all of the electrons change at the quantum mechanical level, and move together through the material as one entity, without any resistance. In ceramics, however, this theory fails, and superconductivity is still not fully understood. What engineers do know is that the key to increasing the critical temperature at which the ceramics enter the superconducting state is found in increasing the density of CuO2 planes within the material, as well as increasing grain size. Currently, engineers are using complex heat treatments and combinations of elements to attempt to increase this plane density. If they find greater success, this could result in a material with superconducting properties at room temperature, which would make possible "superconducting highways", loss-free power transmission, and lightweight electric motors.
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Works Cited
Informational:
1. "American Magnetics." Superconductivity. American Magnetics Inc. 2012. Accessed April 2014. http://www.americanmagnetics.com/supercon.php
2. Cunningham, Justin. "Superconducting material set to improve performance of electric motors." Eureka. Findlay Media. February 2013. Accessed April 2014. http://www.eurekamagazine.co.uk/design-engineering-features/technology/superconducting-material-set-to-improve-performance-of-electric-motors/47910/
3. Grant, Paul Michael. "High-temperature superconductivity: The great quantum conundrum." Nature. August 2011. Accessed April 2014. http://goo.gl/FTeyiM
4. "How are these superconductors made?" Colorado Superconductor, Inc. 2001. Accessed April 2014. http://www.users.qwest.net/~csconductor/Experiment_Guide/How%20our%20superconductors%20are%20made.htm
5. Li Shuang. "Energy Impact of Superconductors." Stanford University. Fall 2010. Accessed April 2014. http://large.stanford.edu/courses/2010/ph240/li1/
6. Livingstone, Paul. "The Business Side Of Superconductivity." R&D Magazine 52.7 (2010): 12-14. Computers & Applied Sciences Complete. Web. 5 May 2014.
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0:41
Magnetic Salt - Dysprosium Nitrate
We demonstrate the magnetic properties of dysprosium nitrate.
Dysprosium nitrate is param...
published: 23 Apr 2012
Magnetic Salt - Dysprosium Nitrate
Magnetic Salt - Dysprosium Nitrate
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We demonstrate the magnetic properties of dysprosium nitrate.
Dysprosium nitrate is paramagnetic and is thus attracted to a magnetic field. The salt itself is clear with a beige/yellow tinge and is thus quite unusual among common magnetic materials that are usually opaque or metallic. By itself dysprosium isn't very useful but can adjust the magnetic properties of other materials and is therefore very useful to make the components of motors, actuators and hard drives.
Dysprosium
Dysprosium is a chemical element with the symbol Dy and atomic number 66. It is a rare earth element with a metallic silver luster. Dysprosium is never found in nature as a free element, though it is found in various minerals, such as xenotime. Naturally occurring dysprosium is composed of seven isotopes, the most abundant of which is 164Dy.
Dysprosium was first identified in 1886 by Paul Émile Lecoq de Boisbaudran, but was not isolated in pure form until the development of ion exchange techniques in the 1950s. Dysprosium is used for its high thermal neutron absorption cross-section in making control rods in nuclear reactors, for its high magnetic susceptibility in data storage applications, and as a component of Terfenol-D. Soluble dysprosium salts are mildly toxic, while the insoluble salts are considered non-toxic.
Characteristics
Physical properties
Dysprosium is a rare earth element that has a metallic, bright silver luster. It is soft enough to be cut with a knife, and can be machined without sparking if overheating is avoided. Dysprosium's physical characteristics can be greatly affected by even small amounts of impurities.
This page contains text from Wikipedia, the Free Encyclopedia - https://wn.com/Dysprosium
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Elko Daily Free Press
05 Aug 2024
Hanington: The rare-earth elements: dysprosium
Elko Daily Free Press
05 Aug 2024
Dysprosium metal retains its luster in dry air, but, like silver, it will tarnish slowly in moist air ... .
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NCMI REPORTS FINAL ASSAYS FOR INFILL RESOURCE DRILLING ON LOFDAL AREA 4 DYSPROSIUM-TERBIUM PROJECT IN NAMIBIA, and APPOINTS OPEN PIT SPECIALIST QUBEKA FOR DETAILED MINE ENGINEERING AND DESIGN STUDY (Namibia Critical Metals Inc)
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NCMI Reports Final Assays for Infill Resource Drilling on Lofdal Area 4 Dysprosium-Terbium Project in ...
HALIFAX, NS / ACCESSWIRE / February 2, 2024 / Namibia Critical Metals Inc.
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A Once-Shuttered California Mine Is Trying to Transform the Rare-Earth Industry
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‘Time is right for Steenkampskraal rare earth mine’
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The Washington Post
09 Jan 2023
China’s Got the Dysprosium. That’s a Problem.
The Washington Post
09 Jan 2023
Beijing’s still way ahead in the rare-earths race, boding ill for 21st-century stability ... .
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