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The dots are niobium and tin atoms. album_3D3234CC_08DB_EF8F_4190_9B6E66CA05DC_2.description = Niobium tin superconducting wire seen under the Transmission Electron Microscope at 30,000 times magnification. album_3D3234CC_08DB_EF8F_4190_9B6E66CA05DC_1.description = Niobium tin superconducting wire seen under the Transmission Electron Microscope at 60,000 times magnification. photo_4551B82E_7F44_4D15_41CF_CE05696782BD.description = Probe in the 41-tesla magnet cell. photo_43CF9536_7F44_4772_419C_E5CD18C37351.description = Probe in the 41-tesla magnet cell. photo_43CF9536_7F44_4772_419C_E5CD18C37351.description = Probe in the 41-tesla magnet cell. photo_4551B82E_7F44_4D15_41CF_CE05696782BD.description = Probe in the 41-tesla magnet cell. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_2.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_3.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_4.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_5.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_6.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_7.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_8.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_9.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_1.description = Probes and probe work in the MilliKelvin facility. album_519DA5FF_0243_DB0E_4170_7630F0170D3F_0.description = Probes and probe work in the MilliKelvin facility. album_90B6669D_02C3_CB6B_4185_A862A01EF19D_0.description = Samples being placed inside the 21 tesla Ion Cyclotron Resonance magnet system. album_90B6669D_02C3_CB6B_4185_A862A01EF19D_1.description = Samples being placed inside the 21 tesla Ion Cyclotron Resonance magnet system. photo_17E5269E_7F44_4535_41DB_DB79E90A3941.description = Stacking a magnet coil. photo_17E5269E_7F44_4535_41DB_DB79E90A3941.description = Stacking a magnet coil. album_F1C590DB_E8D7_CB96_41CC_C1A6F9DFFB53_1.description = Strands of REBCO superconducting tape on top of coils of tape. album_7CFEFA48_ED20_2808_41E1_7C95377CDE75_4.description = Students hold a poster session in the MagLab atrium. album_F49E901A_E9F4_CA54_41D9_831B11A525D2_1.description = Superconducting tape on a winder. album_D7B02BAA_E9FC_D816_41B1_96B4C0FAB0B6_1.description = The 10-ton crane used in the large coil fabrication area. album_D7B02BAA_E9FC_D816_41B1_96B4C0FAB0B6_2.description = The 10-ton crane used in the large coil fabrication area. album_045D1055_2174_626E_41B6_31B8EEF0608C_0.description = The 20-ton crane used to raise and lower heavy equipment for the 45-tesla magnet. album_8C99C0CC_0242_C8FD_4185_C220B7B3DF5A_1.description = The ICR facility’s 14.5 tesla magnet. album_8C99C0CC_0242_C8FD_4185_C220B7B3DF5A_0.description = The ICR facility’s 9.4 tesla magnet. album_7FDFBC3A_5E90_CC44_41CA_6697889486AE_2.description = The coil winding machine specialized to wind high temperature superconducting tape known as REBCO. album_235EA061_0242_D935_4165_8774FE884C60_0.description = The deionization process for all cooling water that runs through our electromagnets. album_235EA061_0242_D935_4165_8774FE884C60_1.description = The deionized water system. album_5715D765_ED60_198D_41E8_FF83D2D61283_3.description = The disk stacking process to build a magnet coil. album_5715D765_ED60_198D_41E8_FF83D2D61283_2.description = The disk stacking process to build a magnet coil. album_5715D765_ED60_198D_41E8_FF83D2D61283_0.description = The disk stacking process to build a magnet coil. album_5715D765_ED60_198D_41E8_FF83D2D61283_1.description = The disk stacking process to build a magnet coil. photo_31F82A38_0331_847A_418D_B0E7F3BB2076.description = The many layers of material that make up REBCO tape. The black is the superconducting material, just two-thousandths of a millimeter thick. photo_31F82A38_0331_847A_418D_B0E7F3BB2076.description = The many layers of material that make up REBCO tape. The black is the superconducting material, just two-thousandths of a millimeter thick. album_91432A43_890C_F190_41DD_1BAACDAB68AE_0.description = The microwave amplifier on the microwave bridge of the HiPER magnet. album_7CC6B3C0_03DF_488A_417E_A20BC0FA9678_1.description = The thick and heavy plates shielding the Series Connected Hybrid magnet to better contain its magnetic field. album_7CC6B3C0_03DF_488A_417E_A20BC0FA9678_0.description = The thick and heavy plates shielding the Series Connected Hybrid magnet to better contain its magnetic field. album_7FDFBC3A_5E90_CC44_41CA_6697889486AE_1.description = Three prototype electromagnets, known as "little big coils,” wound with REBCO superconducting material. photo_139E439F_7F44_4333_41C2_AB599A1B1841.description = Two technicians stack a large magnet coil. photo_139E439F_7F44_4333_41C2_AB599A1B1841.description = Two technicians stack a large magnet coil. album_6CF6D7CC_4F4F_56A1_41AF_4E72B01781F8_4.description = Vice President Al Gore speaks at the MagLab's dedication, Oct. 1, 1994. album_6CF6D7CC_4F4F_56A1_41AF_4E72B01781F8_1.description = Vice President Al Gore speaks at the MagLab's dedication, Oct. 1, 1994. album_6CF6D7CC_4F4F_56A1_41AF_4E72B01781F8_3.description = Vice President Al Gore speaks at the MagLab's dedication, Oct. 1, 1994. album_6CF6D7CC_4F4F_56A1_41AF_4E72B01781F8_5.description = Vice President Al Gore speaks at the MagLab's dedication, Oct. 1, 1994. album_2FDC0D38_ED60_6985_41EB_862867112B90_1.description = Work on a magnet coil in a magnet cell. album_2FDC0D38_ED60_6985_41EB_862867112B90_3.description = Working on a magnet coil. ### Floorplan ### Image imlevel_BF1249F4_A281_CAC2_41E1_1E294A12D451.url = media/map_366DF650_0287_5230_4165_FCB867BDA2B8_en_0.png imlevel_BF1239F4_A281_CAC2_41C1_33BA8CAA3264.url = media/map_366DF650_0287_5230_4165_FCB867BDA2B8_en_1.png imlevel_BF1209F5_A281_CAC2_41E0_0FAB46FC9BE5.url = media/map_366DF650_0287_5230_4165_FCB867BDA2B8_en_2.png imlevel_BF12F9F5_A281_CAC2_41E0_DA6744F04C7D.url = media/map_366DF650_0287_5230_4165_FCB867BDA2B8_en_3.png imlevel_BF12D9F5_A281_CAC2_41D9_345A86459892.url = media/map_366DF650_0287_5230_4165_FCB867BDA2B8_en_4.png ### Subtitle panorama_53C388D6_C96E_4381_41E3_057D9271EF3E.subtitle = A section of the Cryogenics laboratory is dedicated to visualization studies of cryogenic fluids, with an emphasis on superfluid helium, using a variety of laser systems and imaging techniques. panorama_53DC7894_C96F_C381_41E2_5B4CFDB98656.subtitle = After helium recovered throughout the lab is compressed, it goes to the liquefier. This is the final step in the process to recover and reuse this important resource. panorama_53DC081B_C96E_4286_41D5_636CE8D9C16F.subtitle = At 41 tesla, this is one of the lab’s flagship magnets and one of the strongest all-resistive magnets in the world, powered by electricity running through metal disks and cooled by water. panorama_53DC0066_C96E_428E_41C1_B6B58A4403B7.subtitle = Here, on the 45-tesla hybrid magnet platform, users have access to the top of the 22-foot tall magnet and the computerized control station for the magnet. panorama_53C0AFFD_C96F_FD83_41E5_425652AC6E79.subtitle = HiPER (pronounced "hyper") combines a high-power microwave and a 9-tesla magnet to study materials and molecules. panorama_53C0320C_C96E_C681_41C0_3698108D7A5A.subtitle = In the magnet factory, engineers and technicians build the coils that are at the heart of our powerful water-cooled electromagnets, also known as resistive magnets. panorama_53C3E93E_C96E_C2FE_41BA_9F36B4F7E85B.subtitle = In this room, ductile metals can be drawn through dies to hundreds or even thousands of times smaller diameters while retaining their internal structure. panorama_53DC94EC_C96E_4381_41D4_E0A26ECE8926.subtitle = In this shop, electronics engineers design and build specialized instrumentation and power systems for the laboratory. Many systems used at the lab are custom made. panorama_53DC0C63_C96E_4287_41B1_6D34C656ED5D.subtitle = Liquid helium is used to cool magnets and scientific samples. The MagLab has built a system that recycles 85-90% of this critical non-renewable resource every year. panorama_53DDD83B_C96F_C287_41E8_4A4986099187.subtitle = Technicians and machinists working in the machine and welding shop design, build, and repair high-end, custom parts for magnets, instruments, probes and more. panorama_6EAF4815_C969_C28D_41E1_53583175A739.subtitle = The 21-tesla Fourier Transform Ion Cyclotron Resonance (FT-ICR) Mass Spectrometer is a groundbreaking tool custom-built by Bruker Corporation in collaboration with the MagLab. panorama_53C0D114_C96E_C282_41D2_D31022A6F069.subtitle = The Applied Superconductivity Center carries out a broad spectrum of research on superconducting materials, development, and applications. panorama_53C0AD18_C96E_4282_4191_82293C4786B6.subtitle = The Cryogenics Laboratory is a fully equipped facility specializing in the science of extreme cold—temperatures as cold as outer space, at -456° Fahrenheit. panorama_53C64153_C96E_4286_41E7_F72042574B98.subtitle = The MagLab control room is a command center for magnet operations. In this nerve center, 17 hours a day, highly trained technicians operate the MagLab's suite of magnet systems. panorama_53C35414_C96E_4281_4131_3EC0F7D2C100.subtitle = The MagLab plant holds electrical gear, water treatment and cooling, cryogen systems, and other special equipment needed to operate the world’s most powerful magnets. panorama_53C358E4_C96E_4382_41D8_F46CCC8C4179.subtitle = The MagLab’s 900 MHz ultrawide-bore magnet holds the world record as the most powerful MRI scanner for small animals, while also supporting advanced NMR research. panorama_53C1256D_C96E_4283_41B3_D2D25FDDA79E.subtitle = The MilliKelvin Lab provides visiting scientists with three superconducting magnets with low temperature sampling environments. panorama_53C5BE5A_C96E_DE81_41C1_F7A5BDD9D673.subtitle = The Scanning Electron Microscope is used to study the size, shape, texture, orientation, and composition of the tiny particles that make up a material. panorama_53C00A77_C96E_C68F_41E0_031A387B861C.subtitle = The Transmission Electron Microscope is a powerful tool for materials research, a magnifier to see fine microstructures inside materials at the atomic level. panorama_53DC4BD5_C96E_4580_41E0_FF6A19E1AE10.subtitle = The platforms above each magnet in our DC Field facility allow access to the cryostat which cools the sample, the bore where the probe with the sample is inserted, and the instrumentation attached to the probe. panorama_53C06CBC_C96E_4382_41CB_F1E80610F7D5.subtitle = These two NMR magnet systems use processes called magic angle spinning and dynamic nuclear polarization to understand the atomic level structure of materials and frozen solutions. panorama_53C30CFB_C96E_C387_41E5_2354C3D15E11.subtitle = This facility allows precision winding of spools or “pancakes” of high-temperature-superconductor tapes, known as REBCO tapes, which stands for rare-earth barium copper oxide. panorama_53DDB4EA_C96E_C386_41D0_6A00FA69EED7.subtitle = This facility is used for precision winding of magnets made from a high-temperature-superconductor made of Bismuth, strontium, calcium, and copper-oxide, also known as Bi-2212. panorama_53DCFBFC_C96F_C581_41D6_92175CDD296E.subtitle = This facility leads the world in Fourier Transform Ion Cyclotron Resonance (FT-ICR) mass spectrometry to chemically analyze everything from crude oil to pharmaceuticals. panorama_53DD9BF7_C969_C58E_41D3_467903C1A05A.subtitle = This hybrid magnet combines a large superconducting magnet and a resistive magnet connected electrically in series, drawing less electricity and lowering energy costs. panorama_53C78FFB_C96E_5D87_41D3_4D7C2A8154A5.subtitle = This is the crossroads of our DC Field Facility, home to 14 magnets, powered by 56 megawatts and spanning more than 15,000 square feet. panorama_53C38543_C96E_C287_41C8_82BEDD61078D.subtitle = This is the entry point to the MagLab's office space and research areas, a gathering place for staff and visitors, and a space for education and outreach. panorama_53DDB09D_C96E_4383_41DC_6E70D362BDFD.subtitle = This is the main entrance to the MagLab’s 300,000 square foot headquarters, located at Innovation Park in Tallahassee, Florida. panorama_53C2C027_C969_C28E_41E4_5E4D8650BB74.subtitle = This is the most powerful all-superconducting magnet in the world. The engineers and technicians who designed and built it were recognized with a 2022 R&D 100 Award. panorama_53C3D462_C96F_C281_41E7_0C5DF4610CF9.subtitle = This laboratory is used to build the largest superconducting and resistive pulsed magnets for the MagLab and other institutions around the world. panorama_53C2A46E_C969_C29E_41E8_A5AAB9312A0D.subtitle = This magnet is an engineering marvel, with four ports to allow scientists to shoot light at samples in a high magnetic field. panorama_53C14463_C96E_4286_41D6_72AD49A5A1E5.subtitle = This magnet is one of only two in the world that produce a 45 tesla continuous magnetic field. The 45T is made from a superconducting 11.5 tesla outer magnet with a resistive 33.5 tesla inner magnet. panorama_53C167EF_C96E_CD9F_41E3_55CCDC003BF5.subtitle = This section of the magnet factory specializes in winding coils with high temperature superconducting (HTS) tape to produce coils reaching extremely high magnetic fields. panorama_53CB98A0_C96E_4381_41E8_BA089B36399A.subtitle = This shop provides unique equipment used by scientists to evaluate the performance of materials used in construction of high field electromagnets. model_50B13408_C979_C298_41D3_C7B139345624.subtitle = This virtual tour covers every corner of our world-leading laboratory. Use the arrows below to advance to the next stop. Click the colored dots on this diagram to explore by facility. Use the map icon in the upper right for an overview of all stops and to track your tour. ### Title album_8C99C0CC_0242_C8FD_4185_C220B7B3DF5A_1.label = 14-5-tesla-icr-magnet album_90B6669D_02C3_CB6B_4185_A862A01EF19D_0.label = 21 tesla icr magnet sample 1 album_90B6669D_02C3_CB6B_4185_A862A01EF19D_1.label = 21 tesla icr magnet sample 2 panorama_6EAF4815_C969_C28D_41E1_53583175A739.label = 21-tesla ICR magnet album_90B6669D_02C3_CB6B_4185_A862A01EF19D.label = 21-tesla ICR magnet - Samples panorama_53C2A46E_C969_C29E_41E8_A5AAB9312A0D.label = 25T Split Magnet album_63FC680F_03C1_C769_4186_3AA497BCB82E.label = 32-tesla SC magnet - Helium bags panorama_53C2C027_C969_C28E_41E4_5E4D8650BB74.label = 32-tesla Superconducting Magnet photo_437307A2_2286_2233_41AC_312959BA1DEA.label = 32-tesla-nested-coils photo_437307A2_2286_2233_41AC_312959BA1DEA.label = 32-tesla-nested-coils album_7CC6B3C0_03DF_488A_417E_A20BC0FA9678_0.label = 36 tesla magnet shield 1 album_7CC6B3C0_03DF_488A_417E_A20BC0FA9678_1.label = 36 tesla magnet shield 2 album_7CC6B3C0_03DF_488A_417E_A20BC0FA9678.label = 36-tesla - Iron shield panorama_53DC081B_C96E_4286_41D5_636CE8D9C16F.label = 41-tesla Magnet album_4BFE4ED0_E8CC_585B_41E2_8520C379D07B.label = 41-tesla magnet - Probes photo_43CF9536_7F44_4772_419C_E5CD18C37351.label = 41-tesla-probe-1 photo_43CF9536_7F44_4772_419C_E5CD18C37351.label = 41-tesla-probe-1 photo_4551B82E_7F44_4D15_41CF_CE05696782BD.label = 41-tesla-probe-2 photo_4551B82E_7F44_4D15_41CF_CE05696782BD.label = 41-tesla-probe-2 album_4D4F2D18_02C7_2B12_417A_286E43C4DFBB.label = 45 tesla magnet - Ground floor album_4D4F2D18_02C7_2B12_417A_286E43C4DFBB_0.label = 45 tesla magnet ground floor 1 album_4D4F2D18_02C7_2B12_417A_286E43C4DFBB_1.label = 45 tesla magnet ground floor 2 album_4D4F2D18_02C7_2B12_417A_286E43C4DFBB_2.label = 45 tesla magnet ground floor 3 panorama_53C14463_C96E_4286_41D6_72AD49A5A1E5.label = 45-tesla Hybrid 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ASC Facility
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DC Field Facility
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EMR Facility
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ICR Facility
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MS&T Facility
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NMR Facility
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ASC Facility
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DC Field Facility
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EMR Facility
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ICR Facility
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MS&T Facility
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NMR Facility
HTMLText_65735F44_5024_957F_41B4_DDA2980C4D73.html =
Awesome!
So close to finishing the hunt!
One last disk to discover.
HTMLText_63AD47CD_502C_950B_41C0_9C65FF9A6F3C.html =
Congrats!
You’ve found your first bitter disk art
for the scavenger hunt!
HTMLText_666D263C_5027_970F_41D3_64B744DD1B35.html =
Great job!
You’ve spotted the fourth piece
of bitter disk art.
HTMLText_65DAEEB6_5024_971B_41D0_6F04A88A1C15.html =
You're halfway there!
Three out of six bitter disks discovered.
HTMLText_65CDBBAF_5023_9D08_41CC_AF34DE03D5B7.html =
You’re on your way!
Two bitter disks discovered,
four more to go.
HTMLText_66300906_5024_BAFB_41D2_169B450CA38E.html =
You did it!
You’ve found all six hidden bitter disks
for our scavenger hunt.
HTMLText_A0BACA91_82C6_1F94_41BD_E0517DF06BC0.html =
Keep up the good work!
HTMLText_A65372FD_82C2_0F8C_41C0_3576AC40EBC0.html =
Keep your eagle eyes scanning for more!
HTMLText_A64E34FB_82C6_0B94_41AE_FD1F855E7005.html =
Look low, look high, look all around!
HTMLText_A786893C_8293_C20B_41CA_0BD4B203F6B1.html =
Now keep a close eye out for five others.
HTMLText_A7DE6B23_82C2_1EB4_41D5_D14C1B00B9E1.html =
Where are the other three?
HTMLText_B836AAA6_8346_1FBC_41DE_B0BC595B23B3.html =
You are a MagLab science sleuth!
HTMLText_65735F44_5024_957F_41B4_DDA2980C4D73_mobile.html =
Awesome!
So close to finishing the hunt!
One last disk to discover.
HTMLText_63AD47CD_502C_950B_41C0_9C65FF9A6F3C_mobile.html =
Congrats!
You’ve found your first bitter
disk art for the scavenger hunt!
HTMLText_666D263C_5027_970F_41D3_64B744DD1B35_mobile.html =
Great job!
You’ve spotted the fourth
piece of bitter disk art.
HTMLText_66300906_5024_BAFB_41D2_169B450CA38E_mobile.html =
You did it!
You’ve found all six hidden
bitter disks for our scavenger hunt.
HTMLText_65DAEEB6_5024_971B_41D0_6F04A88A1C15_mobile.html =
You're halfway there!
Three out of
six bitter disks discovered.
HTMLText_65CDBBAF_5023_9D08_41CC_AF34DE03D5B7_mobile.html =
You’re on your way!
Two bitter disks discovered,
four more to go.
HTMLText_A0BACA91_82C6_1F94_41BD_E0517DF06BC0_mobile.html =
Keep up the good work!
HTMLText_A65372FD_82C2_0F8C_41C0_3576AC40EBC0_mobile.html =
Keep your eagle eyes scanning for more!
HTMLText_A64E34FB_82C6_0B94_41AE_FD1F855E7005_mobile.html =
Look low, look high,
look all around!
HTMLText_A786893C_8293_C20B_41CA_0BD4B203F6B1_mobile.html =
Now keep a close eye out for five others.
HTMLText_A7DE6B23_82C2_1EB4_41D5_D14C1B00B9E1_mobile.html =
Where are the other three?
HTMLText_B836AAA6_8346_1FBC_41DE_B0BC595B23B3_mobile.html =
You are a MagLab science sleuth!
HTMLText_06695B26_2C39_B483_41A4_4C130AA3ACB6.html =
How Strong are the MagLab’s Electromagnets?
HTMLText_06695B26_2C39_B483_41A4_4C130AA3ACB6_mobile.html =
How Strong are the MagLab’s Electromagnets?
HTMLText_72A332B6_CB36_4619_41D5_7BB04012A075.html =
{{title}}


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HTMLText_72A332B6_CB36_4619_41D5_7BB04012A075_mobile.html =
{{title}}


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Applied Superconductivity Center Facility
Advancing the development and applications of superconductivity - the perfect flow of electrons through materials without any resistance.


EXPLORE FACILITY
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Direct Current Field Facility
Using the world’s strongest magnets to uncover material properties, probe the quantum universe, and develop new technology.


EXPLORE FACILITY
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Electron Magnetic Resonance Facility
Exploring the spins of unpaired electrons to study quantum behavior.


EXPLORE FACILITY
HTMLText_0F9D0BA0_CB3F_C6C6_41DD_3506DA01F971.html =
Ion Cyclotron Resonance Facility
Spinning complex liquids in a high magnetic field to precisely weigh and sort them down to a billionth of a gram.


EXPLORE FACILITY
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Magnet Science & Technology Facility
Designing and building the next generation of world-record high-field research magnets.


EXPLORE FACILITY
HTMLText_11216689_CB36_4EDA_41E7_4346930D547C.html =
Nuclear Magnetic Resonance Facility
Combining high fields and radio frequencies to probe the molecular structure of biological systems to understand health and disease.


EXPLORE FACILITY
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A technician winds superconducting tape onto the coil of a magnet.
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A CNC machine in action making a part for a magnet probe.
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A closer look at one of several furnaces used to heat treat materials at the Applied Superconductivity Center.
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A closer look at one of the electromagnets in the high field coil testing facility.
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A closer look at the 14 tesla Magic Angle Spinning/Dynamic Nuclear Polarization magnet for nuclear magnetic resonance.
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A closer look at the Broomfield 600 winder.
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A closer look at the HiPER magnet.
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A closer look at the furnace used for heat treating magnet coils.
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A closer look at the gyrotron, which can produce microwaves for probing samples on two magnets.
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A closer look at the larger-bore magnet to test superconductors.
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A closer look at the machine shop’s bandsaw.
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A closer look at the machine used to draw metal billets into wire.
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A closer look at the machine used to thin and lengthen wires for use in superconducting magnets.
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A closeup look at one of the wooden chairs used on magnet platforms.
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A closeup of a vibration isolation table on a magnet platform.
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A dewar being filled with liquid helium in the lab’s DC Field facility.
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A diagram of the cryostat for the lab’s 25 tesla split magnet.
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A kit used for the tedious work of readying a small sample for an experiment.
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A lock-in amplifier displays signal readings from a tiny sample being measured inside a magnet system.
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A look at helium billowing from a system during a catastrophic vacuum break.
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A look at the upper platform of a magnet, allowing access to the cryostat and bore, with a chair for sitting.
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A monitor showing the helium system at the lab’s cryo control station.
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A sample on the stage inside the sample chamber of the scanning electron microscope.
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A strawberry floats in the magnetic field inside the bore of a magnet.
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A superconducting magnet coil under construction.
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A thermal conductivity test puck (1” diameter), a sample is attached with a heater, and two temperature sensors.
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An engineering marvel, this unique 25 tesla magnet allows scientists to do never-before-possible experiments.
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Computer rendering of a protein structure.
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Dewars are filled with liquid helium in the cryogenics area of the MagLab’s DC Field facility after the helium is purified, compressed, and liquefied.
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Each magnet cell in the lab’s DC Field facility is marked with its number.
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Frost forms on hoses and valves and frozen water vapor clouds the air as super-cold liquid helium is pumped between dewars.
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Gauges on heat exchangers showing temperature and PSI.
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How liquid helium compares to other extremely cold environments.
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In the pit below the magnet, a scientist loads a probe into the 900 MHz, 21.1 tesla magnet known as the world’s strongest MRI.
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MRI probe for pre-clinical imaging
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Massive chilled water pipes inside the MagLab plant.
HTMLText_4FECBEDE_02C1_690F_416D_05E706C213E0.html =
Meet the 45-tesla Hybrid Magnet.
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NMR probes
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One of the massive chillers used to make cold water to help cool magnets.
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Pairs of electrons, called “Cooper Pairs,” don’t scatter in superconductivity but are linked together as they move across the lattice of a material.
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Pieces of insulation ready to go into a magnet coil during bitter disk stacking.
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Take a closer look at the 41T.
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Technicians sand bitter disks to ready them for use in a magnet coil.
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The 14-tesla magnet system used for superfluid helium levitation research.
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The American flag and plaque that were sent to the MagLab to hang above the flagship 45-tesla magnet.
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The Eclipse hardware and software system that optimizes performance of the 21-T FT-ICR magnet system.
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The MagLab at night.
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The VPI chamber which is used to insulate magnet coils in epoxy.
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The black cones that absorb unwanted microwaves around the HiPER magnet system.
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The bobbin winder is used to prep fibers for use in the wire braider.
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The bull block, among the machines used to reduce the diameter of resistive wires.
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The chilled water pumps move cold water through magnets while they operate-- enough water to fill a hundred bathtubs every minute.
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The computer control terminal for the 45T hybrid magnet.
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The cooling towers that release heat from magnets into the atmosphere.
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The critical current testing system places superconducting wires in a high magnetic field to measure how electricity flows through them.
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The digital display for the MagLab’s Series Connected Hybrid magnet shows a reading of 18 tesla as the magnet is ramped up for research.
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The helium compressor building at the back of the lab's DC Field Facility.
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The informational sign outside Magnet Cell 7 in the DC Field Facility.
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The insulation braiding machine, which can braid wires that are several miles long quickly, reliably, and consistently.
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The lathe in action. It can be used on metal, wood, glass, and pottery.
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The liquid chromotography equipment and computer in front of the 21-T FT-ICR magnet.
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The machine that wraps materials with insulation while the coil is being wound.
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The manual milling machine operates by moving the work piece against a rotating cutter.
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The massive water tanks behind the MagLab that together hold more than 4 million gallons of chilled water for magnet operations.
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The nozzle seen here on the top right in the sample chamber is the Focused Ion Beam for sculpting or cutting materials on the nano-meter scale.
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The operating console for the 900 MHz, 21T magnet known as the world’s strongest MRI.
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The payoff that holds wire to be wound onto large magnet coils.
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The quasi-optical table, which use a series of mirrors to propagate the microwave beam for the HiPER magnet.
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The sights and sounds of a magnet quenching during testing at the MagLab.
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These images show the progression of turbulence in superfluid liquid helium.
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This is one of three swaging machines in the wire drawing and fabrication facility.
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This machine allows coil winding using multiple spools of wire and additional strengthening fibers at the same time.
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This magnet specializes in testing the strain generated by electromagnets called Lorentz force.
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This table allows scientists to split and control the microwave beam coming from the gyrotron.
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Two technicians work underneath a magnet coil in the magnet factory's clean room.
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Video of liquid helium flow.
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Watch Veritasium video.
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Watch a video about the 21T FT-ICR magnet.
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Watch scientists using the MTS machine to test the amount of pressure needed to crush a bull’s skull.
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Watch the EDM machine using electrical discharges to machine material.
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You’ll see lots of these signs around the 25T magnet when optical experiments are in progress.
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A closer look at the HiPER magnet.
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A closer look at the HiPER magnet.
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A closer look at the microwave bridge.
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A closer look at the microwave bridge.
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A closeup of the climate control panels in the room housing the MagLab’s Transmission Electron Microscope.
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A scientist loads the sample holder into the sample chamber of the Transmission Electron Microscope.
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A scientist prepping a sample for the Transmission Electron Microscope.
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An amplifier displays signal readings from a magnet system.
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An amplifier displays signal readings from a magnet system.
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An amplifier displays signal readings from a magnet system.
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An amplifier displays signal readings from a magnet system.
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Pairs of electrons, called “Cooper Pairs,” don’t scatter in superconductivity but are linked together as they move across the lattice of a material.
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Pairs of electrons, called “Cooper Pairs,” don’t scatter in superconductivity but are linked together as they move across the lattice of a material.
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Pairs of electrons, called “Cooper Pairs,” don’t scatter in superconductivity but are linked together as they move across the lattice of a material.
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Pairs of electrons, called “Cooper Pairs,” don’t scatter in superconductivity but are linked together as they move across the lattice of a material.
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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Stairs to 45-tesla hybrid magnet plaform
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The black cones that absorb unwanted microwaves around the HiPER magnet system.
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The black cones that absorb unwanted microwaves around the HiPER magnet system.
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The black cones that absorb unwanted microwaves around the HiPER magnet system.
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The black cones that absorb unwanted microwaves around the HiPER magnet system.
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The front of the MagLab at night.
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The front of the MagLab at night.
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The liquid chromotography equipment and computer in front of the 21-T FT-ICR magnet.
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The liquid chromotography equipment and computer in front of the 21-T FT-ICR magnet.
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The mats at the entrance to the MagLab’s Transmission Electron Microscope room.
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The quasi-optical table used to propagate the microwave beam for the HiPER magnet.
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The quasi-optical table used to propagate the microwave beam for the HiPER magnet.
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This magnet specializes in testing the strain generated by electromagnets called Lorentz force.
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This magnet specializes in testing the strain generated by electromagnets called Lorentz force.
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A technician winds superconducting tape onto the coil of a magnet.
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A CNC machine in action making a part for a magnet probe.
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A closer look at one of several furnaces used to heat treat materials at the Applied Superconductivity Center.
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A closer look at one of the electromagnets in the high field coil testing facility.
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A closer look at the 14 tesla Magic Angle Spinning/Dynamic Nuclear Polarization magnet for nuclear magnetic resonance.
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A closer look at the Broomfield 600 winder.
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A closer look at the HiPER magnet.
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A closer look at the furnace used for heat treating magnet coils.
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A closer look at the gyrotron, which can produce microwaves for probing samples on two magnets.
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A closer look at the larger-bore magnet to test superconductors.
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A closer look at the machine shop’s bandsaw.
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A closer look at the machine used to draw metal billets into wire.
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A closer look at the machine used to thin and lengthen wires for use in superconducting magnets.
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A closeup look at one of the wooden chairs used on magnet platforms.
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A closeup of a vibration isolation table on a magnet platform.
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A closeup of the climate control panels in the room housing the MagLab’s Transmission Electron Microscope.
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A dewar being filled with liquid helium in the lab’s DC Field facility.
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A diagram of the cryostat for the lab’s 25 tesla split magnet.
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A kit used for the tedious work of readying a small sample for an experiment.
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A lock-in amplifier displays signal readings from a tiny sample being measured inside a magnet system.
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A look at helium billowing from a system during a catastrophic vacuum break.
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A look at the upper platform of a magnet, allowing access to the cryostat and bore, with a chair for sitting.
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A monitor showing the helium system at the lab’s cryo control station.
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A sample on the stage inside the sample chamber of the scanning electron microscope.
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A scientist loads the sample holder into the sample chamber of the Transmission Electron Microscope.
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A scientist prepping a sample for the Transmission Electron Microscope.
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A strawberry floats in the magnetic field inside the bore of a magnet.
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A superconducting magnet coil under construction.
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A thermal conductivity test puck (1” diameter), a sample is attached with a heater, and two temperature sensors.
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An engineering marvel, this unique 25 tesla magnet allows scientists to do never-before-possible experiments.
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Computer rendering of a protein structure.
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Dewars are filled with liquid helium in the cryogenics area of the MagLab’s DC Field facility after the helium is purified, compressed, and liquefied.
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Each magnet cell in the lab’s DC Field facility is marked with its number.
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Frost forms on hoses and valves and frozen water vapor clouds the air as super-cold liquid helium is pumped between dewars.
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Gauges on heat exchangers showing temperature and PSI.
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How liquid helium compares to other extremely cold environments.
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In the pit below the magnet, a scientist loads a probe into the 900 MHz, 21.1 tesla magnet known as the world’s strongest MRI.
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MRI probe for pre-clinical imaging
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Massive chilled water pipes inside the MagLab plant.
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Meet the 45-tesla Hybrid Magnet.
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NMR probes
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One of the massive chillers used to make cold water to help cool magnets.
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Pairs of electrons, called “Cooper Pairs,” don’t scatter in superconductivity but are linked together as they move across the lattice of a material.
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Pieces of insulation ready to go into a magnet coil during bitter disk stacking.
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Take a closer look at the 41T.
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Technicians sand bitter disks to ready them for use in a magnet coil.
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The 14-tesla magnet system used for superfluid helium levitation research.
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The American flag and plaque that were sent to the MagLab to hang above the flagship 45-tesla magnet.
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The Eclipse hardware and software system that optimizes performance of the 21-T FT-ICR magnet system.
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The MagLab at night.
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The VPI chamber which is used to insulate magnet coils in epoxy.
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The black cones that absorb unwanted microwaves around the HiPER magnet system.
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The bobbin winder is used to prep fibers for use in the wire braider.
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The bull block, among the machines used to reduce the diameter of resistive wires.
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The chilled water pumps move cold water through magnets while they operate-- enough water to fill a hundred bathtubs every minute.
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The computer control terminal for the 45T hybrid magnet.
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The cooling towers that release heat from magnets into the atmosphere.
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The critical current testing system places superconducting wires in a high magnetic field to measure how electricity flows through them.
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The digital display for the MagLab’s Series Connected Hybrid magnet shows a reading of 18 tesla as the magnet is ramped up for research.
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The helium compressor building at the back of the lab’s DC Field Facility.
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The informational sign outside Magnet Cell 7 in the DC Field Facility.
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The insulation braiding machine, which can braid wires that are several miles long quickly, reliably, and consistently.
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The lathe in action. It can be used on metal, wood, glass, and pottery.
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The liquid chromotography equipment and computer in front of the 21-T FT-ICR magnet.
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The manual milling machine operates by moving the work piece against a rotating cutter.
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The massive water tanks behind the MagLab that together hold more than 4 million gallons of chilled water for magnet operations.
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The mats at the entrance to the MagLab’s Transmission Electron Microscope room.
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The nozzle seen here on the top right in the sample chamber is the Focused Ion Beam for sculpting or cutting materials on the nano-meter scale.
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The operating console for the 900 MHz, 21T magnet known as the world’s strongest MRI.
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The payoff that holds wire to be wound onto large magnet coils.
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The quasi-optical table, which use a series of mirrors to propagate the microwave beam for the HiPER magnet.
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The sights and sounds of a magnet quenching during testing at the MagLab.
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These images show the progression of turbulence in superfluid liquid helium.
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This is one of three swaging machines in the wire drawing and fabrication facility.
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This machine allows coil winding using multiple spools of wire and additional strengthening fibers at the same time.
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This magnet specializes in testing the strain generated by electromagnets called Lorentz force.
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This table allows scientists to split and control the microwave beam coming from the gyrotron.
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Two technicians work underneath a magnet coil in the magnet factory's clean room.
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Video of liquid helium flow.
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Watch Veritasium video.
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Watch a video about the 21T FT-ICR magnet.
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Watch scientists using the MTS machine to test the amount of pressure needed to crush a bull’s skull.
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Watch the EDM machine using electrical discharges to machine material.
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You’ll see lots of these signs around the 25T magnet when optical experiments are in progress.
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The machine that wraps materials with insulation while the coil is being wound.
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Applied Superconductivity Center Facility
Advancing the development and applications of superconductivity - the perfect flow of electrons through materials without any resistance.


EXPLORE FACILITY
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Direct Current Field Facility
Using the world’s strongest magnets to uncover material properties, probe the quantum universe, and develop new technology.


EXPLORE FACILITY
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Electron Magnetic Resonance Facility
Exploring the spins of unpaired electrons to study quantum behavior.


EXPLORE FACILITY
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Ion Cyclotron Resonance Facility
Spinning complex liquids in a high magnetic field to precisely weigh and sort them down to a billionth of a gram.


EXPLORE FACILITY
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Magnet Science & Technology Facility
Designing and building the next generation of world-record high-field research magnets.


EXPLORE FACILITY
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Nuclear Magnetic Resonance Facility
Combining high fields and radio frequencies to probe the molecular structure of biological systems to understand health and disease.


EXPLORE FACILITY
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14-tesla MAS DNP Magnet


This instrument was made by Bruker but modified by MagLab to make it unique in the world with capabilities such as continuous operation for long experiments.


Magic Angle Spinning is a technique used to improve resolution during nuclear magnetic resonance. It involves rapidly rotating the sample around an axis at a very specific angle of 54.74° within a magnetic field. This rotation helps to average out variations in the signal depending on orientation to the magnetic field, helping scientists “see” the sample better.


Just how fast does it spin? 50,000 times per second. Compare that to a dentist drill, which whirls around about 7,000 times a second, or a race car engine that can spin up to 250 times per second.


Dynamic Nuclear Polarization is a technique used to enhance the sensitivity of Nuclear Magnetic Resonance by transferring polarization from unpaired electron spins to spins in the nucleus. This transfer increases the NMR signal intensity, allowing for faster data acquisition and the detection of subtle structural details.
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20-ton Crane


A giant crane looms in the rafters to hoist heavy magnet parts, equipment, and instrumentation onto the three-story high 45T platform. With a 20-ton load capacity, the crane is strong enough to lift a coach bus full of passengers, or even a whale shark!


See the crane in action.
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4-Spindle Bobbin Winder


This machine spools fibers onto smaller bobbins ready to be used in the adjacent wire braider.
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Assembly and Testing Bench


This is the area where precision assembly and testing of circuit boards and other projects takes place. Here, engineers and technicians use tools like soldering irons, screwdrivers, and pliers to assemble components. Instruments such as oscilloscopes, multimeters, and signal generators are used for testing, troubleshooting, and verifying the performance of assembled circuits.
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Bandsaw


A bandsaw has a long, sharp blade of toothed metal stretched between two or more wheels to cut material. Band saws are used principally in woodworking, metalworking, and lumbering, but may cut a variety of materials.
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Big-K Compressor


The Big-K Compressor takes the purified helium gas and compresses it to a pressure of 13 atmospheres (or 188 pounds per square inch). This is the last stop for gas before it is sent to the helium liquefier.
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Bore


The small hole at the center of the magnet where the sample is placed is called the bore. Even though the magnets and surrounding infrastructure are quite massive, bores are tiny. Among the lab’s water-cooled resistive magnets, bores are just an inch or two in diameter.
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Broomfield 500 Winder


The Broomfield 500 winder is set up to wind long medium-weight coils. It is also used to hold spools of wire for respooling onto the payoff.
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Broomfield 600 Winder


The Large Coil Fabrication Lab houses major equipment used to wind, heat treat, and fill with epoxy, coils up to several tons in weight. The Broomfield 600 winder is used to wind coils up to 10 tons.


The Large Coil Fabrication Lab is where the MagLab’s flagship magnets are built.


Coils were built here for the MagLab’s 45T hybrid magnet, the Ultra-Wide Bore 900 MHz NMR magnet known as the world’s strongest MRI, the MagLab Series Connected Hybrid magnet, and the 100T pulsed magnet, to name a few.
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Bull Block


This “bull block” is a powerful machine that is needed to reduce high strength high conductivity wire in diameter. These resistive wires are required for magnets that generate ultra-high magnetic fields.
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Bus Tunnel


Accessible from the 45T platform, a 400-foot-long strip of aluminum bars known as bus bars run above all of the DC Field magnet cells, serving as a superhighway for electricity. The bus bars act as low-resistance pathways for direct current to flow from the power supplies to each magnet. Remote actuated switches allow each magnet to be connected to any combination of power supplies.
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Cell Markings


Each cell is marked with information on the magnet housed there. This includes the type of magnet, how much power it uses, and its strength, measured in tesla.


The info also includes the size of the bore, the hole at the center of the magnet where a sample is placed for study.
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Central Distribution Box


The liquid helium produced by the main liquefier feeds into the Central Distribution Box, allowing it to flow to the Mega-Mo storage dewar, along with the 45T Hybrid magnet, and the 36T Series Connected Hybrid magnet.
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Chillers


The chillers say Trane on the side because that’s the company that makes them. But they might as well say train—as in a locomotive—because that’s about how big they are. These beasts are used to make a huge amount of cold water. They work on the same principle as a home air conditioner, but instead of cooling air, they cool water. The chillers transfer the heat from the chilled water system into the cooling tower system. The cooling towers transfer that heat energy to the atmosphere. Each chiller uses 6,000 gallons per minute of cooling tower water and 2,000 gallons per minute of chilled water.
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Clean Room


This room just off the main magnet factory area has its own air system to minimize dust as technicians work on magnet coils. The clean room also has two 3-ton cranes used to move and flip coils along with a special table allowing access to the underside of coils to remove or install parts.
After coils are fully built, the clean room has a press to simulate the powerful forces the magnet will endure when it's energized and equipment to test voltage across the coil and the strength and uniformity of the magnetic field produced.
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Climate Control Panels


These metal panels on the wall, cooled by water pipes, help regulate the temperature in the microscope room.
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Coil Winding Machine


After the Bi-2212 has been braided with ceramic insulation, it is wound into a magnet coil using this coil-winding machine. The winding machine is designed for precision coil winding, giving us accurate control of wire placement and back-tension as well as real-time data on winding parameters. This machine is equipped with both winding and unwinding capabilities to ensure high-quality magnets.
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Console and Monitors


The Control Room is located right next to and overlooks the plant, which houses much of the equipment used to operate magnets. Magnet operation is monitored and analyzed using a custom computerized control system that automates electrical power, cooling water, chillers, pumps, compressed air, cryogens, and more. At the control system console and monitors, operators send and receive all the information needed to run the facility.


Learn more about how the MagLab manages infrastructure and operates magnets.
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Control Terminal


This collection of computers is where scientists and technicians operate the 45T magnet and its complex hybrid system which combines a resistive magnet cooled by water and a superconducting magnet cooled with liquid helium. The control terminal is located across the platform from the magnet, away from the fringe magnetic field.
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Cooling Towers


Four cooling towers, each 30 feet tall and together 144 feet long, have fans as big as helicopter blades to help release the cooling water system’s heat energy into the atmosphere.
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Cryostat


The top of magnets are outfitted with cryostats, refrigeration systems that utilize a combination of insulation, liquid nitrogen, liquid helium, and vacuum pumps to precisely maintain a range of temperatures from colder than outer space, as low as -459° Fahrenheit, to comfy room temperature of about 80° Fahrenheit.


The cryostat system extends to the center of the magnetic field inside the magnet bore and provides a temperature regulated, electromagnetic interference-shielded environment for the experiment.
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Data


Gathering data while the sample is under the microscope also takes several hours.


Watch an overview of the Transmission Electron Microscope (TEM) and how it works.
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Design Station


An electronics design station is a versatile work area set up to provide tools and equipment needed by engineers for the design, development, and testing of electronic systems and devices, from concept to prototype. This area enables engineers and designers to bring their ideas to life.
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Disk Inspection & Stacking


Bitter disks are the fundamental components of our resistive electromagnets. In this area, the disks, made of copper and silver, are closely inspected for defects before going into a magnet. Even a small defect could cause the magnet to fail. Disks are stacked in a tightly packed helix, like a slinky or a spiral staircase, to form a magnet coil. Multiple coils are nested inside of each other to build a powerful electromagnet. Massive amounts of electricity are run through the coils to produce a high magnetic field at their center, called the bore of the magnet. To prevent all that electricity from overheating the magnet, large volumes of cold, deionized water are pumped through the coils.


Learn more about the resistive magnet making process.


More about the science behind electromagnets.
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Drawbench


Engineers and technicians fabricate composite conductors from stacks of metal rods that can include high strength alloys, superconductors, or superconductor powder in metal tubes that will later be reacted in a heat treatment to form fine-filament, high-current superconductors. The drawbench pulls wire through a small die that reduces the wire’s diameter while making the wire longer. Wires fabricated in this laboratory are initially assembled at much larger size than can be tested or wound into a magnet, and by passing the wire through this machine multiple times with successively smaller dies the wire can be reduced to the required diameter.
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Dust Mats


These sticky mats are in the entry to the microscope room. They collect dust and dirt off of shoes to limit particles that could interfere with the microscope and sample.
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Eclipse


The Eclipse hardware and software system forms the front-end instrumentation that powers the 21-tesla FT-ICR. Eclipse optimizes the magnet's performance, ensuring fast and efficient data processing with the highest resolution and accuracy.
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Focused Ion Beam


The microscope is often used to examine materials used for building magnets, such as copper-silver bitter disks and superconducting wires. The Focused Ion Beam can sculpt or cut materials on the nano-meter scale, or a billionth of a meter. To put that in perspective, a single human hair is 100,000 nanometers thick.
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Front Desk


The front desk is a busy spot where visitors are constantly checking in, including tours and school groups, but especially scientists. Between 1,500 and 2,000 researchers from around the world visit the lab every year. There is no cost to conduct research at the MagLab as long as scientists publish their results.
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Front Doors


The front of the MagLab’s headquarters welcomes scientists from around the world who come here to conduct research. It’s also where we host the public for tours and roll out the red carpet for thousands of visitors from the community during our annual Open House every February.
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Furnace


The Mellen furnace heat treats coils or other components up to 1650° F in a controlled atmosphere.
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Furnaces


Superconducting wires need to be heat treated to obtain their best properties. In this room, multiple furnaces are available for heat treating strands in suitable lengths for testing their properties.
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Gathering Spaces


The large open atrium provides a place for MagLab staff, researchers, students, and visitors to gather for conversation and collaboration. It’s also the hub of activity for the annual Open House, when thousands of people visit the lab.
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Go on a virtual tour scavenger hunt!


Find bitter disks around the lab.


Bitter disks, the fundamental components of our electromagnets, are incorporated in signs, decorations, and artwork around the lab.
We challenge you to spot 6 bitter disk decorations on the virtual tour.


They’ll turn purple when you hover over them. Click on them and we’ll keep score to see if you can find all 6!


Look around carefully. Some are obvious. Others are much more subtle.


Good luck and have fun!
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Ground floor


From the ground floor, you can see the pipes that feed cooling water to the resistive magnet at the center of the 45T, and the cables that wire massive amounts of electricity to the magnet coils. The large gray cylinder at the top is the outer magnet housing.
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Gyrotron


The gyrotron is a microwave source. The microwaves produced are in a form easy to manipulate and direct toward samples.
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Heat Exchangers


The cooling water, which went into the magnet at 42°F, comes out at about 120°F. The large heat exchangers are used to transfer all that thermal energy into the chilled water system. They work sort of like a radiator in a car. Each one is capable of removing massive amounts of heat from the magnet cooling water system.


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Helium Compressor Building


This room is in a special building behind the lab’s DC Field facility which houses the helium compressor and related equipment. Helium is recovered at locations around the lab as it’s being used to cool magnets and experiments. As the liquid helium absorbs heat from a magnet, it boils, and the helium vapor travels through a network of plumbing to helium bags. Once the bags inflate to a certain level, a compressor is turned on which draws gas out of the recovery bags, sending it to the purifier.
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Helium Dewars


Superconducting magnets must be at a very low temperature to operate, so they’re kept in a bath of liquid helium. Helium is stored in large vacuum-sealed tanks called dewars.


Read more about dewars.
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High-Field Conductor and Coil Testing


Here, ASC evaluates electrical, magnetic, and mechanical performance of superconducting wires, tapes, cables, and magnets within high-field magnet testbeds.


The room contains five magnets with varying field strengths, bore sizes, and instrumentation for testing of many variables.
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Hydrostatic Extrusion Press


This press is used to extrude large superconducting composite billets into wire.
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ICR Magnets


The main room of the ICR facility includes a 14.5 tesla FT-ICR magnet and two 9.4 tesla FT-ICR magnets.


Learn more about how FT-ICR works.
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ICR Technology


The magnet has cutting-edge Ion Cyclotron Resonance (ICR) technology. Charged particles are trapped, spun, and analyzed within the 21-Tesla magnetic field, enabling the identification of a vast number of unique molecules in a single sample.


Read more about the 21T FT-ICR magnet.
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Insulation


Insulation is a critical component installed during disk stacking. The insulation is inspected for defects, then cut down to size for fitting to the disks. Insulation is placed precisely between each disk during stacking to ensure electricity is flowing evenly through the coil.
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Insulation Braiding Machine


Our in-house braiding machine allows us to braid wires to provide electrical insulation and mechanical strength. Using this machine, high-strength fibers are braided around the round wire Bi-2212 to achieve compact magnets that can support high stresses at fields of more than 25 tesla. Having our own braiding machine allows us to significantly lower total conductor costs as well as provide us with the opportunity to experiment with new types of insulation. All magnet materials must be able to endure an extreme temperature range, up to 1650° F and as low as -450 °F during magnet operation.
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Insulation Machine


The insulation machine wraps the wire with insulation materials while the coil is being wound. The insulation is typically fiberglass, or a combination of fiberglass and a high-performance material called Kapton film.
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Ionization Techniques


Samples must be ionized, or given a charge, so that they will respond to the high magnetic field inside the mass spectrometer. Various ionization techniques are crucial for achieving high resolution mass spectrometry.
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Iron Shield


The octagonal iron shield around this magnet is made of 4-inch-thick steel plates, each weighing 38,000 pounds. The shield helps contain the enormous fringe magnetic field generated by the 36-tesla Series Connected Hybrid magnet so that neighboring magnet cells are not affected.
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LR280 Helium Liquefier


The Linde LR280 helium liquefier is the main helium liquefier at the MagLab. Here, compressed helium gas is pre-cooled by a liquid nitrogen heat exchanger down to about -319°F. Then heat exchangers with fast-spinning turbines cool the gas even more, to a super-chill -447°F. Finally, the helium gas goes through a special valve that causes it to rapidly expand and cool down even further, becoming liquid.


The LR280 has the capacity to produce about 52 gallons of liquid helium every hour.
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Lab Partners


The front of the atrium showcases the lab’s key partners.
The National Science Foundation and the State of Florida provide the bulk of the lab’s funding, making all taxpayers stakeholders in our science.
This investment pays off, as every dollar of funding generates more than six dollars of economic activity for the community, the state, and the country.
Other funding for specific research initiatives comes from private and public sources, including the National Institutes of Health, Department of Energy and Department of Defense.
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Lathe


A lathe rotates a workpiece around an axis to perform various operations such as sanding, facing, turning, drilling, and threading, creating an object with symmetry around the axis.
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Liquid Chromatography


Liquid Chromatography is used to separate components in a sample before it enters the 21-tesla FT-ICR. This enhances the instrument's ability to analyze complex mixtures, ensuring greater accuracy.
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Liquid Helium Flow Visualization Facility


This one-of-a-kind research apparatus generates and images highly turbulent fluid flows in the superfluid phase of liquid helium. The facility can provide direct visualization of highly turbulent fluid flows without the need for a full-scale wind tunnel.
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Long Table


This is a prepping area for stacking coils of bitter disks, the fundamental components of our electromagnets. The disks carry the electricity that powers the magnets and creates a high magnetic field.


Parts are collected here and counted out precisely to be ready for coil building. A stacking plan will also be laid out and reviewed before stacking begins.
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MRI Probe


This magnet’s four-inch bore allows imaging of living small animals such as rodents and birds for preclinical biomedical research. The MRI probe uses radio signals to create detailed images of the internal structures in those animals. The probe has a radio frequency coil to send and receive signals. Coils come in various types, including single loop coils, butterfly coils, birdcage coils, figure-8 coils, and array coils. They are designed to obtain maximum signal-to-noise ratio from different regions of the body, ensuring the best possible image quality.


Read more about MRI on living animals
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MTS Tensile Machine


This tensile machine tests materials’ mechanical strength. In the tensile test, a specimen is pulled until it breaks. The force needed to break indicates the material's strength. The test can be performed at ambient, liquid nitrogen (-320° F), and liquid helium (-452° F) temperatures.
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Machining Tools


Small machining tools are important for making precise parts for electronics projects. Powered hand tools, drill presses, and milling machines allow the detailed work required to shape or modify metal and plastic.
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MagLab Artwork


Bitter disks have been used for art pieces throughout the MagLab. The disks are the primary components used to build our powerful water-cooled electromagnets. You can learn more about them during the tour stop in the Magnet Factory.
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Magnet Cells


There are 16 magnet spaces in DC Field, called cells. The DC stands for direct current, which is pumped into the magnets to produce a steady magnetic field. Alternating current, or AC, coming from the power grid goes through rectifiers at the lab to convert the power to DC. Transformers also lower the voltage and increase the current.
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Magnet Coils


Magnet factory scientists and technicians build new magnets but also repair and replace worn out coils to keep the lab's fleet of world-record magnets in operation for researchers. Coils are routinely removed for maintenance and are retightened to increase longevity. They are also taken out and inspected if testing shows signs of possible damage. Damaged coils are replaced, then disassembled to determine the cause of damage.
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Magnet Cooling Water Pumps


The magnet cooling pumps are used to pump cold water, at 42° Fahrenheit, through magnets. They can pump at up to 500 PSI of water pressure. That’s about 8 times the water pressure in a typical home! That much pressure is needed to move up to 4,000 gallons of cold water per minute through our magnets.
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Magnet Football


This magnet can catch!


Watch what happens when we put metal inside a nerf football and throw it at the 45T.
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Magnet Housing and Plumbing


The magnet housing is a large, thick-walled vessel made of stainless steel that contains the magnet coils. Deionized water flows through the magnet housing at high pressure and velocity to extract the immense heat energy released from the magnet coils.


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Magnet Magic


The lab was proud to host Derek Muller and Veritasium for a video about magnetism, the MagLab, and the 45T.
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Magnet Pit


The 32T is mounted in a concrete pit level to the floor, providing a more convenient position for installing equipment, loading probes, running experiments and transferring cryogens while minimizing stray magnetic fields.
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Magnetic Field Display


Each magnet in the DC Field facility has a digital display showing the magnetic field strength in tesla in real time as the magnet is powered up.
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Magnetic Field Strength


At the MagLab, we talk about magnetic field strength using units called tesla.
The tesla is a measurement of magnetic flux density, or how much force the magnetic field has per unit area. You can think of it as how concentrated the magnetic field is.
The Earth’s magnetic field, which moves a compass needle, is just 50 millionths of a tesla (0.00005 tesla).
A refrigerator magnet is about 0.02 tesla.
A junkyard magnet, capable of lifting a car, is about 1 tesla.
Most MRIs for medical imaging use a 1.5 or 3 tesla magnet.
At the MagLab, our magnets produce fields ranging from 3 tesla up to 45 tesla. At our Pulsed Field Facility at Los Alamos, magnets are capable of reaching 100 tesla for a fraction of a second.
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Main Winder


This is the main winder that winds superconducting tape into a “pancake” shape. It takes tapes from up to four spools and winds them in a controlled fashion. The spools may contain different materials such as REBCO, pure copper, or stainless steel, depending on the coil requirements.
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Mega-Mo Liquid Helium Storage Dewar


Mega-Mo is the nickname for this dewar, a specialized giant vacuum flask. The dewar can hold about 790 gallons of liquid helium. The liquid is transferred from Mega-Mo into smaller, portable vacuum flasks. MagLab scientists and visiting researchers will use the liquid helium from the portable dewars to cool their experiments.
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Microwave Bridge


The microwave bridge initiates the generation of the microwaves and controls characteristics including frequency, power, phase, pulse length and shape.
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Milling Machine


A manual milling machine is usually operated by hand to perform milling, drilling, fly cutting, shaping, and forming metal and other materials.
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Operator Console


Situated strategically beyond the fringe magnetic field, the workstations control image and data acquisition as well as generating magnetic resonance images and spectra. Some computers control the radio frequency pulses used to probe the sample, managing timing and coordination. Others process raw data signals into detailed images or magnetic resonance spectra.


Think you know your MRI images? Play a game and guess which veggies you see.
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Optical Table


Scientists learn more about the intrinsic properties of materials by shining light on them. Looking at which kinds of light are absorbed or reflected at different angles gives researchers insight into the fundamental electronic structure of matter. This kind of research, over decades, has led to smaller and faster computers, and other quality-of-life enhancements.
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Overhauser DNP magnet


This 14-tesla liquid dynamic nuclear polarization spectrometer has applications in chemistry, biochemistry, and medicine.


Check out this comic explaining how Dynamic Nuclear Polarization works
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Particle Tracking Velocimetry


This facility focuses on enhancing the efficiency and performance of particle accelerators by detecting tiny defects using superfluid helium, lasers, and high-speed cameras.
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Payoff


The payoff holds the wire that is to be wound into a coil and provides what’s called back tension in the winding process. This helps assure tightness and consistency of the wire being wound onto the coil.
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Physical Property Measurement System


This system measures physical properties, including electric resistivity, thermal conductivity, specific heat capacity, and magnetization. These measurements are performed from liquid helium temperatures (-452° F) to elevated temperatures (200° F).
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Pit


The 21.1-Tesla magnet is 16 feet tall. To ensure the MRI probes are perfectly centered with the magnetic field, these probes are built to be 6 to 6.5 feet long.


Fitting these tall probes into a magnet with a bore diameter of just four inches is challenging. A pit below the magnet allows for the proper loading of the probes, setting up for experiments on live animals.
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Platform


From above the magnet, scientists can lower their probe with a sample and instrumentation into the small opening at the center of the magnet. The bore, as it’s called, is just a tiny space. In this case, it’s only about one and a half inches across.


Learn more about research on this magnet marvel.
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Plumbing


The pipes visible on the bottom of the magnet carry high-pressure, high flow cooling water to and from the resistive part of the magnet. The structure on the bottom of the magnet where they attach is called the hydrant.
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Probe/Sample Prep Area


Since it was first commissioned in 1999, the 45T has been used by thousands of researchers to study samples by placing them in a magnetic field a million times stronger than the Earth’s. Novel materials can be characterized and analyzed in the highest continuous magnetic field available. The materials studied here could become components for better batteries, smaller, faster computer components, and other next generation electronics.
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Probe


Even though our magnets are quite large, the space available for samples is small and difficult to reach. A probe is used to place a sample in the center of the magnet where the field is strongest and most uniform. Scientists use different types of probes depending on the type of sample they are studying, how they are studying the sample, and the data they want to collect.


Read more about probes.


See video of a rotating probe.
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Probes


Even though our magnets are quite large, the space available for samples is small and difficult to reach. A probe is used to place a sample in the center of the magnet where the field is strongest and most uniform. A probe is typically used in conjunction with a cryostat - a device used to maintain a very precise, low temperature. Probes can also be used to rotate the sample.


Read more about probes.


See video of a rotating probe.
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Purifier


Helium is recovered at locations around the lab and travels through a network of plumbing to helium bags and then on to the purifier. The purifier does just what its name implies. It purifies the helium by removing any nitrogen, oxygen, water, or other contaminants from the recovered gas. The cleaned-up gas is then sent to the compression stage.
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Quasi-Optical Table


The quasi-optical table splits the microwave beam coming out of the gyrotron into two separate beams, one directed to the MAS DNP spectrometer and the other directed toward the Overhauser DNP system. This quasi-optical set-up allows total control of the microwave polarization and power of each of the beams reaching the samples for the two different DNP systems.
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Quasi-Optical Tables


The quasi-optical tables are used to propagate the microwave beam from the source to the probe and from the probe to the detector.
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Quench Protection Equipment


A quench is when part of a superconducting magnet becomes resistive due to small anomalies in current within the superconductor. All the energy stored in the magnetic field begins converting to heat. When a magnet quenches, helium gas is released to dissipate energy and try to prevent damage. The 32T’s quench protection system monitors all the coils in the magnet thousands of times per second for minor fluctuations of voltage.
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REBCO Coil Winding Machine


This machine is used to carefully wind superconducting tapes into some of the world’s strongest magnets, achieving fields approaching 50 tesla. This shop specializes in No-Insulation (NI) windings that allow for very compact, high-field coils. The winding machine is specialized for high temperature superconducting tape, equipped with proper tension control and conductor guidance to achieve good alignment of the tapes into pancake coils. Addition of co-winding materials to thermally and mechanically reinforce the pancake coils is also possible.
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REBCO Tape


REBCO, which stands for rare earth barium copper oxide, is a superconductor, meaning when kept extremely cold, it can carry electricity without resistance. REBCO is manufactured in a wire tape a tenth of a millimeter thick. The actual REBCO is just a tiny layer of 0.002 millimeters sandwiched in a high-strength nickel steel substrate, coated in silver and then plated in copper.


REBCO was used to make the world’s strongest all-superconducting magnet. MagLab scientists are now designing and testing an even stronger magnet using the same material. REBCO is what’s known as a high-temperature superconductor. High temperature superconductors retain their ability to carry electricity without resistance at -300°F. That’s still super cold, but much warmer than the more commonly used low temperature superconductors of niobium titanium and niobium tin, which must be cooled below -450°F.
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Respooler


The re-spooler is used to parse out tapes from the storage spools. Technicians place the necessary amount of tape onto spools, then put the spools onto a winding machine to make the coils.
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Sample Chamber


The sample chamber of the Transmission Electron Microscope is in the middle of the microscope, allowing electrons to pass through the ultra-thin sample, where they are detected to create an image.
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Sample Chamber


The sample chamber is located at the base of the column. Inside the sample chamber sits the sample stage and electron detectors.
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Sample Prep Area


Obtaining meaningful and useful data takes a lot of time. Sample preparation can take 5-10 hours.
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Sample


The sample is placed at the end of the probe so it can be lowered into the center of the magnet where the field strength is highest. The 41.4-tesla all-resistive magnet is easier for scientists to use than a hybrid magnet and gives them more flexibility to adjust the field strength and direction during experiments. It's used to study materials that may one day help build smaller and faster computer chips, empower quantum computers, and become high-temperature superconductors.


Learn more about what goes in the magnets
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Samples


The magnet offers the highest resolution and best mass accuracy of any mass spectrometer in the world. This allows detailed analyses of highly complex mixtures, including crude oil, biofuels, pharmaceuticals, and emerging contaminants. It can detect molecular structures that were previously undetectable.


Read about ICR research on forever chemicals
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Samples/Probe


The Series Connected Hybrid magnet is not just unique because of the way it’s powered. It also has capabilities across two disciplines. At 36 tesla, it’s one of the most powerful magnets used for condensed matter physics, studying novel materials, and is the most powerful magnet in the world for solid-state nuclear magnetic resonance, allowing chemists and biologists to study molecular structures such as proteins.
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Sand Room


In this room, bitter disks are sanded to remove surface material to expose the copper and/or silver. The disks are then inspected for any defects.
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Science Never Sleeps


You'll find someone parked at the MagLab all day and night. Research goes on around the clock because the lab’s magnets, instrumentation, and expertise are in high demand. No matter the time of day or day of the week, scientists are running experiments at the lab.
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Secondary Chilled Water Pumps


The secondary chilled water pumps move water through the heat exchangers to remove thermal energy.


There are two secondary chilled water loops, one for each heat exchanger.
There are four pumps per loop and each pump is capable of pumping 4,500 gallons per minute for a total of 18,000 gallons per minute per loop.
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Secondary Winder


A secondary coil winder that also winds coils into pancake shapes.
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Solder/Assembly Station


The solder/assembly station is an important part of electronics development and fabrication of circuit boards. It is a specialized workstation set up to facilitate soldering electronic components such as resistors, capacitors, and diodes onto circuit boards.
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Solid State NMR probe


What makes our NMR/MRI program unique is our ability to develop our own probes that excel in research. Our user program is enriched by the development of our own technology, making us a leader in the field.
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Spool


Spools of high strength and high conductivity copper wire are ready to be reduced in diameter for coil winding.
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Staging Area


This is a staging area to send sheets of square copper for stamping into bitter disks. This process can take up to a year. The disks are then sanded and plated with silver.
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Stairs to platform


The 45T is so large, it takes two flights of stairs to get to the platform on top where users control the magnet, insert their sample, and run their experiment.
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Strain Test Facility


Electromagnets producing powerful magnetic fields generate extremely powerful force known as Lorentz force, which can damage superconducting wires. In this magnet, strains are applied to superconducting wires under a magnetic field and the impact on their properties is measured.
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Sudden Catastrophic Vacuum Break Research Facility


At extremely cold temperatures, gases like nitrogen, oxygen, and helium transform into liquids. These cryogenic liquids play a vital role in a wide array of scientific applications, from MRIs and superconducting magnets to spacecraft propulsion and quantum computing.


This facility is designed to investigate systems undergoing a sudden vacuum loss. Understanding the intricacies of a vacuum break is key in the design of various scientific systems and equipment.
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Superconducting Magnets


The MilliKelvin Lab gets its name because it measures samples at extremely low temperatures, known as milliKelvins, or a thousandth of a Kelvin. The coldest temperature reached is approximately 0.010 Kelvin, or -459° Fahrenheit, using a dilution refrigerator. That’s colder than outer space!


At higher temperatures, molecules, atoms, and subatomic particles move around in high-energy states. As you cool to very low temperatures, this thermal motion slows, allowing researchers to see effects they can’t observe at higher temperatures.


MilliKelvin’s three superconducting magnets, made from materials that carry electricity with zero resistance, have much lower power requirements than resistive electromagnets – a few kilowatts vs tens of megawatts. To put it in perspective, it’s the difference between powering 6 microwave ovens versus 15,000 entire homes.
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Superconductor Critical Current Testing System


The system consists of a 15-tesla superconducting magnet, a high electrical current source, and a digital data acquisition system. It measures the critical current of superconducting wires at liquid helium temperature (-452° F) in a magnetic field up to 15T.
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Superfluid Helium Droplet Levitation Facility


Primary research areas in the Cryogenics Laboratory include fundamental studies of the superfluid phase of liquid helium and levitated helium droplets.


Here we can levitate a droplet of liquid helium within a microgravity environment, where it transitions into a superfluid state. Superfluids, which flow with virtually no viscosity, have the potential to enhance liquid fuels for space propulsion.
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Swaging Machine


This swaging machine, sometimes called a hammer press, is used to shape the end of a wire so that it will fit through a reduction die for wire drawing.
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The 25-tesla Split-Helix Magnet


The 25 tesla magnet was designed with four wide ports evenly spaced around the perimeter. This allows access to the sample for optical experiments that would otherwise be impossible. The 25T is the most powerful magnet of this kind in the world.
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The 32-tesla Superconducting Magnet


An award-winning one-of-a-kind magnet, the 32T combines two separate magnets: a 15-tesla low temperature superconductor outer magnet, provided by our partner Oxford Instruments, made of niobium-tin and niobium-titanium; and a 17-tesla high temperature superconductor inner magnet made of yttrium-barium-copper-oxide (YBCO). If you unwound the coils of YBCO in this magnet, the tape would stretch more than six miles.
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The 45-tesla Hybrid Magnet


One of only a handful of hybrid magnets in the world, this mighty magnet’s superconducting coil alone contains enough copper wiring for 80 average homes. That’s enough to stretch for more than four miles.
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The 45-tesla Hybrid Magnet


The big gray barrel located about 15 feet off the ground houses the 45T magnet coils. On the inside is a resistive magnet made of bitter disks and cooled with high pressure water flowing at 4,000 gallons per minute.


Wrapped around it is a superconducting magnet cooled with liquid helium to -456° Fahrenheit.
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The HiPER Magnet


The HiPER magnet is a 9-tesla high-performance electron resonance magnet used to search for free electrons in a material.


Watch a scientist removes a probe and sample from the HiPER magnet.
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The Image


The electron source is at the top of the microscope and fires a beam of electrons at the object under examination. As the beam hits the sample, electrons scatter from the sample surface. Detectors collect these scattered electrons, converting them into a signal and the signal into an image.


Take a closer look at how the Scanning Electron Microscope works.
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The Lab’s Founder


Florida State University physics professor the late Jack Crow is honored with a bust in our atrium for his role as the MagLab’s visionary founder and first director. In 1989, Crow proposed a new national magnet lab in Florida, challenging MIT, home to the Francis Bitter National Magnet Laboratory. The National Science Foundation awarded the National MagLab to Florida State University in August 1990. The lab was officially dedicated in 1994 by Vice President Al Gore.
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U.S. Capitol American Flag


Flown over the U.S. Capitol on Jan. 4, 2018, this American flag was sent to the MagLab by the U.S. Department of Commerce after the lab hosted the department for the Americas Competitiveness Exchange on Innovation and Entrepreneurship.
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Ultra-wide bore 900 MHz NMR Magnet


The large cryostat houses the superconducting coils, which generate an ultra-high magnetic field when cooled to –452 °F using approximately 634 gallons of liquid helium. This low temperature allows the magnet’s superconducting wire to carry electrical current without resistance and without an external energy source. If you uncoiled all the wire, it would stretch 95 miles, about the distance from Tallahassee to Panama City.
The magnet has been serving the scientific community since 2005 for experiments on stroke, heart disease, migraines, dementia, and much more.


10 cool things about the 900.
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Upper Platform


The upper platform allows scientists to be above the top of the magnet and cryostat. Here, they are better able to insert the probe into the bore and access instrumentation at the end of the probe. A chair allows them to sit on the platform if they need to insert the probe slowly or work on the instrumentation connections. The chair is wooden to ensure it is not affected by the high magnetic field.
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VPI Chamber


Coils are saturated with epoxy under vacuum using the Vacuum Pressure Impregnation (VPI) chamber. Epoxy is introduced into the windings of a coil under vacuum and then cured at elevated temperature and pressure to create a strong insulation system.
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Vertical Machining Centers


These are Computer Numerical Control, or CNC, machines. They use a series of preparatory commands from a computer to perform tasks without manual input. The commands are written in code and can be generated by the operator, computer-aided design (CAD) software, or computer-aided manufacturing software.
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Very Large Test Superconducting Magnet


This magnet has a large enough space in its bore to test high-current multi-tape conductors that are needed for applications such as atomic fusion reactors known as tokamaks. The magnet is buried under the floor so that there is more headroom for instrumentation in the laboratory.
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Vibration Isolation Table


Many magnets in the DC Field facility have a vibration isolation table to isolate the cryostat from the vibrations produced by the flowing magnet cooling water and the outside environment. This helps scientists collect cleaner data during their experiments.
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Water Tanks


A pair of four-story water tanks behind the MagLab hold between them 4.3 million gallons of water — the equivalent of about six and a half Olympic-size swimming pools, or enough to take 250,000 showers. That’s a shower a day for the next 684 years! The water is kept at a chilly 42° Fahrenheit.
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Water Treatment System


The water treatment system is used to make ultra-high-purity de-ionized water to cool the magnets, power supplies and magnet power cables. Contrary to popular belief, water does not conduct electricity. The impurities in water act as conductors. The water treatment system uses two 40 cubic foot mixed resin beds to remove all the impurities so the magnet cooling water does not conduct electricity and can be used in direct contact with high power electricity to keep the magnets from overheating.
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Window Screens


The windows in MilliKelvin may remind you of a screened-in porch. They’re covered with a fine copper mesh. This mesh, combined with the metal walls, creates a Faraday Cage – a covering that blocks radio waves from outside the lab which can cause noise during sensitive experiments.
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Wire EDM Machine


The Electrical Discharge Machine (EDM) carries out a metal fabrication process known as Spark Machining. A metal piece is shaped using electrical discharges (sparks). Material is removed from the work piece by a series of rapid discharges between two electrodes. Extremely hard materials like carbides, ceramics, titanium alloys, and heat-treated steels can be precisely machined by an EDM.
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Wire, Cable, and Parts Supplies


The Electronics Shop keeps an inventory of wires and cables, an important part of electrical and electronics work, which transmit signals, power, and data between various devices and components.
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Witches’ Hats


The black cones known as “witches' hats” absorb unwanted microwaves, echoes that would otherwise blur the signal of interest. This enables very high sensitivity, so scientists can run experiments on a material even if they have a very small amount. This capability is very important in structural biology.
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Wooden Chair


The simple wooden chairs at the top of our magnet platforms don’t seem to belong with all of our high-tech equipment. But these chairs are basic for a reason. They contain no magnetic materials so they won’t be pulled toward the magnet. And they offer researchers a place to sit as they may spend hours on the platform carefully loading their sample into the center of the magnet.
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Big Sign


The MagLab sign on the outside of our DC Field Facility is a favorite place for pictures.
Students, scientists, tour groups, and other visitors from around the world document their visit to the lab by posing in front of the well-known backdrop.


The sign also recognizes the lab's primary funding sources: the U.S. National Science Foundation and the State of Florida.
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MagLab Van


The MagLab van is used by staff for lab-related transportation around Tallahassee and between our headquarters and other lab sites. It also promotes the lab everywhere it travels with its bright, bold coloring. The artwork represents a crystal structure studied at the MagLab known as a Van der Waals material. Because it’s a van, get it?


The plug-in hybrid vehicle was supported by a grant from the U.S. National Science Foundation.
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The Lab’s Dedication


In October 1994, dignitaries gathered on the front lawn to formally dedicate the MagLab.


The event featured keynote speaker Vice President Al Gore, Florida Governor Lawton Chiles, and leaders from Florida State University, the University of Florida, and Los Alamos National Laboratory. Following the dedication, the lab held its first Open House, beginning a tradition that has carried on for more than 30 years.
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Fringe Field Lines


Lines on the floor mark the strength of the fringe magnetic field that extends beyond the magnet. The lines are a visual reminder to researchers not to bring any metal objects close to the magnet. These markings are found around many magnets throughout the lab.
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14-tesla MAS DNP Magnet


This instrument was made by Bruker but modified by MagLab to make it unique in the world with capabilities such as continuous operation for long experiments.


Magic Angle Spinning is a technique used to improve resolution during nuclear magnetic resonance. It involves rapidly rotating the sample around an axis at a very specific angle of 54.74° within a magnetic field. This rotation helps to average out variations in the signal depending on orientation to the magnetic field, helping scientists “see” the sample better.


Just how fast does it spin? 50,000 times per second. Compare that to a dentist drill, which whirls around about 7,000 times a second, or a race car engine that can spin up to 250 times per second.


Dynamic Nuclear Polarization is a technique used to enhance the sensitivity of Nuclear Magnetic Resonance by transferring polarization from unpaired electron spins to spins in the nucleus. This transfer increases the NMR signal intensity, allowing for faster data acquisition and the detection of subtle structural details.
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20-ton Crane


A giant crane looms in the rafters to hoist heavy magnet parts, equipment, and instrumentation onto the three-story high 45T platform. With a 20-ton load capacity, the crane is strong enough to lift a coach bus full of passengers, or even a whale shark!


See the crane in action.


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4-Spindle Bobbin Winder


This machine spools fibers onto smaller bobbins ready to be used in the adjacent wire braider.
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Assembly and Testing Bench


This is the area where precision assembly and testing of circuit boards and other projects takes place. Here, engineers and technicians use tools like soldering irons, screwdrivers, and pliers to assemble components. Instruments such as oscilloscopes, multimeters, and signal generators are used for testing, troubleshooting, and verifying the performance of assembled circuits.
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Bandsaw
A bandsaw has a long, sharp blade of toothed metal stretched between two or more wheels to cut material. Band saws are used principally in woodworking, metalworking, and lumbering, but may cut a variety of materials.
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Big Sign


The MagLab sign on the outside of our DC Field Facility is a favorite place for pictures.
Students, scientists, tour groups, and other visitors from around the world document their visit to the lab by posing in front of the well-known backdrop.


The sign also recognizes the lab's primary funding sources: the U.S. National Science Foundation and the State of Florida.
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Big-K Compressor


The Big-K Compressor takes the purified helium gas and compresses it to a pressure of 13 atmospheres (or 188 pounds per square inch). This is the last stop for gas before it is sent to the helium liquefier.
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Bore


The small hole at the center of the magnet where the sample is placed is called the bore. Even though the magnets and surrounding infrastructure are quite massive, bores are tiny. Among the lab’s water-cooled resistive magnets, bores are just an inch or two in diameter.
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Broomfield 500 Winder


The Broomfield 500 winder is set up to wind long medium-weight coils. It is also used to hold spools of wire for respooling onto the payoff.
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Broomfield 600 Winder


The Large Coil Fabrication Lab houses major equipment used to wind, heat treat, and fill with epoxy, coils up to several tons in weight. The Broomfield 600 winder is used to wind coils up to 10 tons.


The Large Coil Fabrication Lab is where the MagLab’s flagship magnets are built.


Coils were built here for the MagLab’s 45T hybrid magnet, the Ultra-Wide Bore 900 MHz NMR magnet known as the world’s strongest MRI, the MagLab Series Connected Hybrid magnet, and the 100T pulsed magnet, to name a few.
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Bull Block


This “bull block” is a powerful machine that is needed to reduce high strength high conductivity wire in diameter. These resistive wires are required for magnets that generate ultra-high magnetic fields.
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Bus Tunnel


Accessible from the 45T platform, a 400-foot-long strip of aluminum bars known as bus bars run above all of the DC Field magnet cells, serving as a superhighway for electricity. The bus bars act as low-resistance pathways for direct current to flow from the power supplies to each magnet. Remote actuated switches allow each magnet to be connected to any combination of power supplies.
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Cell Markings


Each cell is marked with information on the magnet housed there. This includes the type of magnet, how much power it uses, and its strength, measured in tesla.


The info also includes the size of the bore, the hole at the center of the magnet where a sample is placed for study.
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Central Distribution Box


The liquid helium produced by the main liquefier feeds into the Central Distribution Box, allowing it to flow to the Mega-Mo storage dewar, along with the 45T Hybrid magnet, and the 36T Series Connected Hybrid magnet.
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Chillers


The chillers say Trane on the side because that’s the company that makes them. But they might as well say train—as in a locomotive—because that’s about how big they are. These beasts are used to make a huge amount of cold water. They work on the same principle as a home air conditioner, but instead of cooling air, they cool water. The chillers transfer the heat from the chilled water system into the cooling tower system. The cooling towers transfer that heat energy to the atmosphere. Each chiller uses 6,000 gallons per minute of cooling tower water and 2,000 gallons per minute of chilled water.
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Clean Room


This room just off the main magnet factory area has its own air system to minimize dust as technicians work on magnet coils. The clean room also has two 3-ton cranes used to move and flip coils along with a special table allowing access to the underside of coils to remove or install parts.
After coils are fully built, the clean room has a press to simulate the powerful forces the magnet will endure when it's energized and equipment to test voltage across the coil and the strength and uniformity of the magnetic field produced.
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Climate Control Panels


These metal panels on the wall, cooled by water pipes, help regulate the temperature in the microscope room.
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Coil Winding Machine


After the Bi-2212 has been braided with ceramic insulation, it is wound into a magnet coil using this coil-winding machine. The winding machine is designed for precision coil winding, giving us accurate control of wire placement and back-tension as well as real-time data on winding parameters. This machine is equipped with both winding and unwinding capabilities to ensure high-quality magnets.
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Console and Monitors


The Control Room is located right next to and overlooks the plant, which houses much of the equipment used to operate magnets. Magnet operation is monitored and analyzed using a custom computerized control system that automates electrical power, cooling water, chillers, pumps, compressed air, cryogens, and more. At the control system console and monitors, operators send and receive all the information needed to run the facility.


Learn more about how the MagLab manages infrastructure and operates magnets.
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Control Terminal


This collection of computers is where scientists and technicians operate the 45T magnet and its complex hybrid system which combines a resistive magnet cooled by water and a superconducting magnet cooled with liquid helium. The control terminal is located across the platform from the magnet, away from the fringe magnetic field.
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Cooling Towers


Four cooling towers, each 30 feet tall and together 144 feet long, have fans as big as helicopter blades to help release the cooling water system’s heat energy into the atmosphere.
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Cryostat


The top of magnets are outfitted with cryostats, refrigeration systems that utilize a combination of insulation, liquid nitrogen, liquid helium, and vacuum pumps to precisely maintain a range of temperatures from colder than outer space, as low as -459° Fahrenheit, to comfy room temperature of about 80° Fahrenheit.


The cryostat system extends to the center of the magnetic field inside the magnet bore and provides a temperature regulated, electromagnetic interference-shielded environment for the experiment.
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Data


Gathering data while the sample is under the microscope also takes several hours.


Watch an overview of the Transmission Electron Microscope (TEM) and how it works.
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Design Station


An electronics design station is a versatile work area set up to provide tools and equipment needed by engineers for the design, development, and testing of electronic systems and devices, from concept to prototype. This area enables engineers and designers to bring their ideas to life.
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Disk Inspection & Stacking


Bitter disks are the fundamental components of our resistive electromagnets. In this area, the disks, made of copper and silver, are closely inspected for defects before going into a magnet. Even a small defect could cause the magnet to fail. Disks are stacked in a tightly packed helix, like a slinky or a spiral staircase, to form a magnet coil. Multiple coils are nested inside of each other to build a powerful electromagnet. Massive amounts of electricity are run through the coils to produce a high magnetic field at their center, called the bore of the magnet. To prevent all that electricity from overheating the magnet, large volumes of cold, deionized water are pumped through the coils.


Learn more about the resistive magnet making process.


More about the science behind electromagnets.
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Drawbench


Engineers and technicians fabricate composite conductors from stacks of metal rods that can include high strength alloys, superconductors, or superconductor powder in metal tubes that will later be reacted in a heat treatment to form fine-filament, high-current superconductors. The drawbench pulls wire through a small die that reduces the wire’s diameter while making the wire longer. Wires fabricated in this laboratory are initially assembled at much larger size than can be tested or wound into a magnet, and by passing the wire through this machine multiple times with successively smaller dies the wire can be reduced to the required diameter.
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Dust Mats


These sticky mats are in the entry to the microscope room. They collect dust and dirt off of shoes to limit particles that could interfere with the microscope and sample.
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Eclipse


The Eclipse hardware and software system forms the front-end instrumentation that powers the 21-tesla FT-ICR. Eclipse optimizes the magnet's performance, ensuring fast and efficient data processing with the highest resolution and accuracy.
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Focused Ion Beam


The microscope is often used to examine materials used for building magnets, such as copper-silver bitter disks and superconducting wires. The Focused Ion Beam can sculpt or cut materials on the nano-meter scale, or a billionth of a meter. To put that in perspective, a single human hair is 100,000 nanometers thick.
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Fringe Field Lines


Lines on the floor mark the strength of the fringe magnetic field that extends beyond the magnet. The lines are a visual reminder to researchers not to bring any metal objects close to the magnet. These markings are found around many magnets throughout the lab.
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Front Desk


The front desk is a busy spot where visitors are constantly checking in, including tours and school groups, but especially scientists. Between 1,500 and 2,000 researchers from around the world visit the lab every year. There is no cost to conduct research at the MagLab as long as scientists publish their results.
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Front Doors


The front of the MagLab’s headquarters welcomes scientists from around the world who come here to conduct research. It’s also where we host the public for tours and roll out the red carpet for thousands of visitors from the community during our annual Open House every February.
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Furnace


The Mellen furnace heat treats coils or other components up to 1650° F in a controlled atmosphere.
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Furnaces


Superconducting wires need to be heat treated to obtain their best properties. In this room, multiple furnaces are available for heat treating strands in suitable lengths for testing their properties.
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Gathering Spaces


The large open atrium provides a place for MagLab staff, researchers, students, and visitors to gather for conversation and collaboration. It’s also the hub of activity for the annual Open House, when thousands of people visit the lab.
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Go on a virtual tour scavenger hunt!
Find bitter disks around the lab.


Bitter disks, the fundamental components of our electromagnets, are incorporated in signs, decorations, and artwork around the lab.
We challenge you to spot 6 bitter disk decorations on the virtual tour.


They’ll turn purple when you hover over them. Click on them and we’ll keep score to see if you can find all 6!


Look around carefully. Some are obvious. Others are much more subtle.


Good luck and have fun!
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Ground floor


From the ground floor, you can see the pipes that feed cooling water to the resistive magnet at the center of the 45T, and the cables that wire massive amounts of electricity to the magnet coils. The large gray cylinder at the top is the outer magnet housing.
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Gyrotron


The gyrotron is a microwave source. The microwaves produced are in a form easy to manipulate and direct toward samples.
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Heat Exchangers


The cooling water, which went into the magnet at 42°F, comes out at about 120°F. The large heat exchangers are used to transfer all that thermal energy into the chilled water system. They work sort of like a radiator in a car. Each one is capable of removing massive amounts of heat from the magnet cooling water system.


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Helium Compressor Building


This room is in a special building behind the lab’s DC Field facility which houses the helium compressor and related equipment. Helium is recovered at locations around the lab as it’s being used to cool magnets and experiments. As the liquid helium absorbs heat from a magnet, it boils, and the helium vapor travels through a network of plumbing to helium bags. Once the bags inflate to a certain level, a compressor is turned on which draws gas out of the recovery bags, sending it to the purifier.
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Helium Dewars


Superconducting magnets must be at a very low temperature to operate, so they’re kept in a bath of liquid helium. Helium is stored in large vacuum-sealed tanks called dewars.


Read more about dewars.
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High-Field Conductor and Coil Testing


Here, ASC evaluates electrical, magnetic, and mechanical performance of superconducting wires, tapes, cables, and magnets within high-field magnet testbeds.


The room contains five magnets with varying field strengths, bore sizes, and instrumentation for testing of many variables.
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Hydrostatic Extrusion Press


This press is used to extrude large superconducting composite billets into wire.
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ICR Magnets


The main room of the ICR facility includes a 14.5 tesla FT-ICR magnet and two 9.4 tesla FT-ICR magnets.


Learn more about how FT-ICR works.
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ICR Technology


The magnet has cutting-edge Ion Cyclotron Resonance (ICR) technology. Charged particles are trapped, spun, and analyzed within the 21-Tesla magnetic field, enabling the identification of a vast number of unique molecules in a single sample.


Read more about the 21T FT-ICR magnet.
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Insulation


Insulation is a critical component installed during disk stacking. The insulation is inspected for defects, then cut down to size for fitting to the disks. Insulation is placed precisely between each disk during stacking to ensure electricity is flowing evenly through the coil.
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Insulation Braiding Machine


Our in-house braiding machine allows us to braid wires to provide electrical insulation and mechanical strength. Using this machine, high-strength fibers are braided around the round wire Bi-2212 to achieve compact magnets that can support high stresses at fields of more than 25 tesla. Having our own braiding machine allows us to significantly lower total conductor costs as well as provide us with the opportunity to experiment with new types of insulation. All magnet materials must be able to endure an extreme temperature range, up to 1650° F and as low as -450 °F during magnet operation.
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Insulation Machine


The insulation machine wraps the wire with insulation materials while the coil is being wound. The insulation is typically fiberglass, or a combination of fiberglass and a high-performance material called Kapton film.
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Ionization Techniques


Samples must be ionized, or given a charge, so that they will respond to the high magnetic field inside the mass spectrometer. Various ionization techniques are crucial for achieving high resolution mass spectrometry.
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Iron Shield
The octagonal iron shield around this magnet is made of 4-inch-thick steel plates, each weighing 38,000 pounds. The shield helps contain the enormous fringe magnetic field generated by the 36-tesla Series Connected Hybrid magnet so that neighboring magnet cells are not affected.
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LR280 Helium Liquefier


The Linde LR280 helium liquefier is the main helium liquefier at the MagLab. Here, compressed helium gas is pre-cooled by a liquid nitrogen heat exchanger down to about -319°F. Then heat exchangers with fast-spinning turbines cool the gas even more, to a super-chill -447°F. Finally, the helium gas goes through a special valve that causes it to rapidly expand and cool down even further, becoming liquid.


The LR280 has the capacity to produce about 52 gallons of liquid helium every hour.
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Lab Partners


The front of the atrium showcases the lab’s key partners.
The National Science Foundation and the State of Florida provide the bulk of the lab’s funding, making all taxpayers stakeholders in our science.
This investment pays off, as every dollar of funding generates more than six dollars of economic activity for the community, the state, and the country.
Other funding for specific research initiatives comes from private and public sources, including the National Institutes of Health, Department of Energy and Department of Defense.
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Lathe


A lathe rotates a workpiece around an axis to perform various operations such as sanding, facing, turning, drilling, and threading, creating an object with symmetry around the axis.
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Liquid Chromatography


Liquid Chromatography is used to separate components in a sample before it enters the 21-tesla FT-ICR. This enhances the instrument's ability to analyze complex mixtures, ensuring greater accuracy.
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Liquid Helium Flow Visualization Facility


This one-of-a-kind research apparatus generates and images highly turbulent fluid flows in the superfluid phase of liquid helium. The facility can provide direct visualization of highly turbulent fluid flows without the need for a full-scale wind tunnel.
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Long Table


This is a prepping area for stacking coils of bitter disks, the fundamental components of our electromagnets. The disks carry the electricity that powers the magnets and creates a high magnetic field.


Parts are collected here and counted out precisely to be ready for coil building. A stacking plan will also be laid out and reviewed before stacking begins.
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MRI Probe


This magnet’s four-inch bore allows imaging of living small animals such as rodents and birds for preclinical biomedical research. The MRI probe uses radio signals to create detailed images of the internal structures in those animals. The probe has a radio frequency coil to send and receive signals. Coils come in various types, including single loop coils, butterfly coils, birdcage coils, figure-8 coils, and array coils. They are designed to obtain maximum signal-to-noise ratio from different regions of the body, ensuring the best possible image quality.


Read more about MRI on living animals
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MTS Tensile Machine


This tensile machine tests materials’ mechanical strength. In the tensile test, a specimen is pulled until it breaks. The force needed to break indicates the material's strength. The test can be performed at ambient, liquid nitrogen (-320° F), and liquid helium (-452° F) temperatures.
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Machining Tools


Small machining tools are important for making precise parts for electronics projects. Powered hand tools, drill presses, and milling machines allow the detailed work required to shape or modify metal and plastic.
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MagLab Artwork


Bitter disks have been used for art pieces throughout the MagLab. The disks are the primary components used to build our powerful water-cooled electromagnets. You can learn more about them during the tour stop in the Magnet Factory.
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MagLab Van


The MagLab van is used by staff for lab-related transportation around Tallahassee and between our headquarters and other lab sites. It also promotes the lab everywhere it travels with its bright, bold coloring. The artwork represents a crystal structure studied at the MagLab known as a Van der Waals material. Because it’s a van, get it?


The plug-in hybrid vehicle was supported by a grant from the U.S. National Science Foundation.
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Magnet Cells


There are 16 magnet spaces in DC Field, called cells. The DC stands for direct current, which is pumped into the magnets to produce a steady magnetic field. Alternating current, or AC, coming from the power grid goes through rectifiers at the lab to convert the power to DC. Transformers also lower the voltage and increase the current.
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Magnet Coils


Magnet factory scientists and technicians build new magnets but also repair and replace worn out coils to keep the lab's fleet of world-record magnets in operation for researchers. Coils are routinely removed for maintenance and are retightened to increase longevity. They are also taken out and inspected if testing shows signs of possible damage. Damaged coils are replaced, then disassembled to determine the cause of damage.
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Magnet Cooling Water Pumps


The magnet cooling pumps are used to pump cold water, at 42° Fahrenheit, through magnets. They can pump at up to 500 PSI of water pressure. That’s about 8 times the water pressure in a typical home! That much pressure is needed to move up to 4,000 gallons of cold water per minute through our magnets.
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Magnet Football


This magnet can catch!


Watch what happens when we put metal inside a nerf football and throw it at the 45T.
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Magnet Housing and Plumbing


The magnet housing is a large, thick-walled vessel made of stainless steel that contains the magnet coils. Deionized water flows through the magnet housing at high pressure and velocity to extract the immense heat energy released from the magnet coils.


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Magnet Magic


The lab was proud to host Derek Muller and Veritasium for a video about magnetism, the MagLab, and the 45T.
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Magnet Pit


The 32T is mounted in a concrete pit level to the floor, providing a more convenient position for installing equipment, loading probes, running experiments and transferring cryogens while minimizing stray magnetic fields.
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Magnetic Field Display


Each magnet in the DC Field facility has a digital display showing the magnetic field strength in tesla in real time as the magnet is powered up.
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Magnetic Field Strength


At the MagLab, we talk about magnetic field strength using units called tesla.
The tesla is a measurement of magnetic flux density, or how much force the magnetic field has per unit area. You can think of it as how concentrated the magnetic field is.
The Earth’s magnetic field, which moves a compass needle, is just 50 millionths of a tesla (0.00005 tesla).
A refrigerator magnet is about 0.02 tesla.
A junkyard magnet, capable of lifting a car, is about 1 tesla.
Most MRIs for medical imaging use a 1.5 or 3 tesla magnet.
At the MagLab, our magnets produce fields ranging from 3 tesla up to 45 tesla. At our Pulsed Field Facility at Los Alamos, magnets are capable of reaching 100 tesla for a fraction of a second.
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Main Winder


This is the main winder that winds superconducting tape into a “pancake” shape. It takes tapes from up to four spools and winds them in a controlled fashion. The spools may contain different materials such as REBCO, pure copper, or stainless steel, depending on the coil requirements.
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Mega-Mo Liquid Helium Storage Dewar


Mega-Mo is the nickname for this dewar, a specialized giant vacuum flask. The dewar can hold about 790 gallons of liquid helium. The liquid is transferred from Mega-Mo into smaller, portable vacuum flasks. MagLab scientists and visiting researchers will use the liquid helium from the portable dewars to cool their experiments.
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Microwave Bridge


The microwave bridge initiates the generation of the microwaves and controls characteristics including frequency, power, phase, pulse length and shape.
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Milling Machine


A manual milling machine is usually operated by hand to perform milling, drilling, fly cutting, shaping, and forming metal and other materials.
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Operator Console


Situated strategically beyond the fringe magnetic field, the workstations control image and data acquisition as well as generating magnetic resonance images and spectra. Some computers control the radio frequency pulses used to probe the sample, managing timing and coordination. Others process raw data signals into detailed images or magnetic resonance spectra.


Think you know your MRI images? Play a game and guess which veggies you see.
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Optical Table


Scientists learn more about the intrinsic properties of materials by shining light on them. Looking at which kinds of light are absorbed or reflected at different angles gives researchers insight into the fundamental electronic structure of matter. This kind of research, over decades, has led to smaller and faster computers, and other quality-of-life enhancements.
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Overhauser DNP magnet


This 14-tesla liquid dynamic nuclear polarization spectrometer has applications in chemistry, biochemistry, and medicine.


Check out this comic explaining how Dynamic Nuclear Polarization works
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Particle Tracking Velocimetry


This facility focuses on enhancing the efficiency and performance of particle accelerators by detecting tiny defects using superfluid helium, lasers, and high-speed cameras.
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Payoff


The payoff holds the wire that is to be wound into a coil and provides what’s called back tension in the winding process. This helps assure tightness and consistency of the wire being wound onto the coil.
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Physical Property Measurement System


This system measures physical properties, including electric resistivity, thermal conductivity, specific heat capacity, and magnetization. These measurements are performed from liquid helium temperatures (-452° F) to elevated temperatures (200° F).
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Pit


The 21.1-Tesla magnet is 16 feet tall. To ensure the MRI probes are perfectly centered with the magnetic field, these probes are built to be 6 to 6.5 feet long.


Fitting these tall probes into a magnet with a bore diameter of just four inches is challenging. A pit below the magnet allows for the proper loading of the probes, setting up for experiments on live animals.
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Platform


From above the magnet, scientists can lower their probe with a sample and instrumentation into the small opening at the center of the magnet. The bore, as it’s called, is just a tiny space. In this case, it’s only about one and a half inches across.


Learn more about research on this magnet marvel.
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Plumbing


The pipes visible on the bottom of the magnet carry high-pressure, high flow cooling water to and from the resistive part of the magnet. The structure on the bottom of the magnet where they attach is called the hydrant.
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Probe/Sample Prep Area


Since it was first commissioned in 1999, the 45T has been used by thousands of researchers to study samples by placing them in a magnetic field a million times stronger than the Earth’s. Novel materials can be characterized and analyzed in the highest continuous magnetic field available. The materials studied here could become components for better batteries, smaller, faster computer components, and other next generation electronics.
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Probe


Even though our magnets are quite large, the space available for samples is small and difficult to reach. A probe is used to place a sample in the center of the magnet where the field is strongest and most uniform. Scientists use different types of probes depending on the type of sample they are studying, how they are studying the sample, and the data they want to collect.


Read more about probes.


See video of a rotating probe.
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Probes


Even though our magnets are quite large, the space available for samples is small and difficult to reach. A probe is used to place a sample in the center of the magnet where the field is strongest and most uniform. A probe is typically used in conjunction with a cryostat - a device used to maintain a very precise, low temperature. Probes can also be used to rotate the sample.


Read more about probes.


See video of a rotating probe.
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Purifier


Helium is recovered at locations around the lab and travels through a network of plumbing to helium bags and then on to the purifier. The purifier does just what its name implies. It purifies the helium by removing any nitrogen, oxygen, water, or other contaminants from the recovered gas. The cleaned-up gas is then sent to the compression stage.
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Quasi-Optical Table


The quasi-optical table splits the microwave beam coming out of the gyrotron into two separate beams, one directed to the MAS DNP spectrometer and the other directed toward the Overhauser DNP system. This quasi-optical set-up allows total control of the microwave polarization and power of each of the beams reaching the samples for the two different DNP systems.
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Quasi-Optical Tables


The quasi-optical tables are used to propagate the microwave beam from the source to the probe and from the probe to the detector.
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Quench Protection Equipment


A quench is when part of a superconducting magnet becomes resistive due to small anomalies in current within the superconductor. All the energy stored in the magnetic field begins converting to heat. When a magnet quenches, helium gas is released to dissipate energy and try to prevent damage. The 32T’s quench protection system monitors all the coils in the magnet thousands of times per second for minor fluctuations of voltage.
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REBCO Coil Winding Machine


This machine is used to carefully wind superconducting tapes into some of the world’s strongest magnets, achieving fields approaching 50 tesla. This shop specializes in No-Insulation (NI) windings that allow for very compact, high-field coils. The winding machine is specialized for high temperature superconducting tape, equipped with proper tension control and conductor guidance to achieve good alignment of the tapes into pancake coils. Addition of co-winding materials to thermally and mechanically reinforce the pancake coils is also possible.
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REBCO Tape
REBCO, which stands for rare earth barium copper oxide, is a superconductor, meaning when kept extremely cold, it can carry electricity without resistance. REBCO is manufactured in a wire tape a tenth of a millimeter thick. The actual REBCO is just a tiny layer of 0.002 millimeters sandwiched in a high-strength nickel steel substrate, coated in silver and then plated in copper.


REBCO was used to make the world’s strongest all-superconducting magnet. MagLab scientists are now designing and testing an even stronger magnet using the same material. REBCO is what’s known as a high-temperature superconductor. High temperature superconductors retain their ability to carry electricity without resistance at -300°F. That’s still super cold, but much warmer than the more commonly used low temperature superconductors of niobium titanium and niobium tin, which must be cooled below -450°F.
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Respooler


The re-spooler is used to parse out tapes from the storage spools. Technicians place the necessary amount of tape onto spools, then put the spools onto a winding machine to make the coils.
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Sample Chamber


The sample chamber of the Transmission Electron Microscope is in the middle of the microscope, allowing electrons to pass through the ultra-thin sample, where they are detected to create an image.
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Sample Chamber


The sample chamber is located at the base of the column. Inside the sample chamber sits the sample stage and electron detectors.
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Sample Prep Area


Obtaining meaningful and useful data takes a lot of time. Sample preparation can take 5-10 hours.
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Sample


The sample is placed at the end of the probe so it can be lowered into the center of the magnet where the field strength is highest. The 41.4-tesla all-resistive magnet is easier for scientists to use than a hybrid magnet and gives them more flexibility to adjust the field strength and direction during experiments. It's used to study materials that may one day help build smaller and faster computer chips, empower quantum computers, and become high-temperature superconductors.


Learn more about what goes in the magnets
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Samples


The magnet offers the highest resolution and best mass accuracy of any mass spectrometer in the world. This allows detailed analyses of highly complex mixtures, including crude oil, biofuels, pharmaceuticals, and emerging contaminants. It can detect molecular structures that were previously undetectable.


Read about ICR research on forever chemicals
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Samples/Probe


The Series Connected Hybrid magnet is not just unique because of the way it’s powered. It also has capabilities across two disciplines. At 36 tesla, it’s one of the most powerful magnets used for condensed matter physics, studying novel materials, and is the most powerful magnet in the world for solid-state nuclear magnetic resonance, allowing chemists and biologists to study molecular structures such as proteins.
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Sand Room


In this room, bitter disks are sanded to remove surface material to expose the copper and/or silver. The disks are then inspected for any defects.
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Science Never Sleeps


You'll find someone parked at the MagLab all day and night. Research goes on around the clock because the lab’s magnets, instrumentation, and expertise are in high demand. No matter the time of day or day of the week, scientists are running experiments at the lab.
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Secondary Chilled Water Pumps


The secondary chilled water pumps move water through the heat exchangers to remove thermal energy.


There are two secondary chilled water loops, one for each heat exchanger.
There are four pumps per loop and each pump is capable of pumping 4,500 gallons per minute for a total of 18,000 gallons per minute per loop.
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Secondary Winder


A secondary coil winder that also winds coils into pancake shapes.
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Solder/Assembly Station


The solder/assembly station is an important part of electronics development and fabrication of circuit boards. It is a specialized workstation set up to facilitate soldering electronic components such as resistors, capacitors, and diodes onto circuit boards.
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Solid State NMR probe


What makes our NMR/MRI program unique is our ability to develop our own probes that excel in research. Our user program is enriched by the development of our own technology, making us a leader in the field.
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Spool


Spools of high strength and high conductivity copper wire are ready to be reduced in diameter for coil winding.
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Staging Area
This is a staging area to send sheets of square copper for stamping into bitter disks. This process can take up to a year. The disks are then sanded and plated with silver.
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Stairs to platform


The 45T is so large, it takes two flights of stairs to get to the platform on top where users control the magnet, insert their sample, and run their experiment.
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Strain Test Facility


Electromagnets producing powerful magnetic fields generate extremely powerful force known as Lorentz force, which can damage superconducting wires. In this magnet, strains are applied to superconducting wires under a magnetic field and the impact on their properties is measured.
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Sudden Catastrophic Vacuum Break Research Facility


At extremely cold temperatures, gases like nitrogen, oxygen, and helium transform into liquids. These cryogenic liquids play a vital role in a wide array of scientific applications, from MRIs and superconducting magnets to spacecraft propulsion and quantum computing.


This facility is designed to investigate systems undergoing a sudden vacuum loss. Understanding the intricacies of a vacuum break is key in the design of various scientific systems and equipment.
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Superconducting Magnets


The MilliKelvin Lab gets its name because it measures samples at extremely low temperatures, known as milliKelvins, or a thousandth of a Kelvin. The coldest temperature reached is approximately 0.010 Kelvin, or -459° Fahrenheit, using a dilution refrigerator. That’s colder than outer space!


At higher temperatures, molecules, atoms, and subatomic particles move around in high-energy states. As you cool to very low temperatures, this thermal motion slows, allowing researchers to see effects they can’t observe at higher temperatures.


MilliKelvin’s three superconducting magnets, made from materials that carry electricity with zero resistance, have much lower power requirements than resistive electromagnets – a few kilowatts vs tens of megawatts. To put it in perspective, it’s the difference between powering 6 microwave ovens versus 15,000 entire homes.
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Superconductor Critical Current Testing System


The system consists of a 15-tesla superconducting magnet, a high electrical current source, and a digital data acquisition system. It measures the critical current of superconducting wires at liquid helium temperature (-452° F) in a magnetic field up to 15T.
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Superfluid Helium Droplet Levitation Facility


Primary research areas in the Cryogenics Laboratory include fundamental studies of the superfluid phase of liquid helium and levitated helium droplets.


Here we can levitate a droplet of liquid helium within a microgravity environment, where it transitions into a superfluid state. Superfluids, which flow with virtually no viscosity, have the potential to enhance liquid fuels for space propulsion.
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Swaging Machine
This swaging machine, sometimes called a hammer press, is used to shape the end of a wire so that it will fit through a reduction die for wire drawing.
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The 25-tesla Split-Helix Magnet


The 25 tesla magnet was designed with four wide ports evenly spaced around the perimeter. This allows access to the sample for optical experiments that would otherwise be impossible. The 25T is the most powerful magnet of this kind in the world.
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The 32-tesla Superconducting Magnet


An award-winning one-of-a-kind magnet, the 32T combines two separate magnets: a 15-tesla low temperature superconductor outer magnet, provided by our partner Oxford Instruments, made of niobium-tin and niobium-titanium; and a 17-tesla high temperature superconductor inner magnet made of yttrium-barium-copper-oxide (YBCO). If you unwound the coils of YBCO in this magnet, the tape would stretch more than six miles.
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The 45-tesla Hybrid Magnet


One of only a handful of hybrid magnets in the world, this mighty magnet’s superconducting coil alone contains enough copper wiring for 80 average homes. That’s enough to stretch for more than four miles.
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The 45-tesla Hybrid Magnet


The big gray barrel located about 15 feet off the ground houses the 45T magnet coils. On the inside is a resistive magnet made of bitter disks and cooled with high pressure water flowing at 4,000 gallons per minute.


Wrapped around it is a superconducting magnet cooled with liquid helium to -456° Fahrenheit.
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The HiPER Magnet


The HiPER magnet is a 9-tesla high-performance electron resonance magnet used to search for free electrons in a material.


Watch a scientist removes a probe and sample from the HiPER magnet.
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The Image


The electron source is at the top of the microscope and fires a beam of electrons at the object under examination. As the beam hits the sample, electrons scatter from the sample surface. Detectors collect these scattered electrons, converting them into a signal and the signal into an image.


Take a closer look at how the Scanning Electron Microscope works.
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The Lab’s Dedication


In October 1994, dignitaries gathered on the front lawn to formally dedicate the MagLab.


The event featured keynote speaker Vice President Al Gore, Florida Governor Lawton Chiles, and leaders from Florida State University, the University of Florida, and Los Alamos National Laboratory. Following the dedication, the lab held its first Open House, beginning a tradition that has carried on for more than 30 years.
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The Lab’s Founder


Florida State University physics professor the late Jack Crow is honored with a bust in our atrium for his role as the MagLab’s visionary founder and first director. In 1989, Crow proposed a new national magnet lab in Florida, challenging MIT, home to the Francis Bitter National Magnet Laboratory. The National Science Foundation awarded the National MagLab to Florida State University in August 1990. The lab was officially dedicated in 1994 by Vice President Al Gore.
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U.S. Capitol American Flag


Flown over the U.S. Capitol on Jan. 4, 2018, this American flag was sent to the MagLab by the U.S. Department of Commerce after the lab hosted the department for the Americas Competitiveness Exchange on Innovation and Entrepreneurship.
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Ultra-wide bore 900 MHz NMR Magnet


The large cryostat houses the superconducting coils, which generate an ultra-high magnetic field when cooled to –452 °F using approximately 634 gallons of liquid helium. This low temperature allows the magnet’s superconducting wire to carry electrical current without resistance and without an external energy source. If you uncoiled all the wire, it would stretch 95 miles, about the distance from Tallahassee to Panama City.
The magnet has been serving the scientific community since 2005 for experiments on stroke, heart disease, migraines, dementia, and much more.


10 cool things about the 900.
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Upper Platform


The upper platform allows scientists to be above the top of the magnet and cryostat. Here, they are better able to insert the probe into the bore and access instrumentation at the end of the probe. A chair allows them to sit on the platform if they need to insert the probe slowly or work on the instrumentation connections. The chair is wooden to ensure it is not affected by the high magnetic field.
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VPI Chamber


Coils are saturated with epoxy under vacuum using the Vacuum Pressure Impregnation (VPI) chamber. Epoxy is introduced into the windings of a coil under vacuum and then cured at elevated temperature and pressure to create a strong insulation system.
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Vertical Machining Centers


These are Computer Numerical Control, or CNC, machines. They use a series of preparatory commands from a computer to perform tasks without manual input. The commands are written in code and can be generated by the operator, computer-aided design (CAD) software, or computer-aided manufacturing software.
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Very Large Test Superconducting Magnet


This magnet has a large enough space in its bore to test high-current multi-tape conductors that are needed for applications such as atomic fusion reactors known as tokamaks. The magnet is buried under the floor so that there is more headroom for instrumentation in the laboratory.
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Vibration Isolation Table


Many magnets in the DC Field facility have a vibration isolation table to isolate the cryostat from the vibrations produced by the flowing magnet cooling water and the outside environment. This helps scientists collect cleaner data during their experiments.
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Water Tanks


A pair of four-story water tanks behind the MagLab hold between them 4.3 million gallons of water — the equivalent of about six and a half Olympic-size swimming pools, or enough to take 250,000 showers. That’s a shower a day for the next 684 years! The water is kept at a chilly 42° Fahrenheit.
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Water Treatment System


The water treatment system is used to make ultra-high-purity de-ionized water to cool the magnets, power supplies and magnet power cables. Contrary to popular belief, water does not conduct electricity. The impurities in water act as conductors. The water treatment system uses two 40 cubic foot mixed resin beds to remove all the impurities so the magnet cooling water does not conduct electricity and can be used in direct contact with high power electricity to keep the magnets from overheating.
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Window Screens


The windows in MilliKelvin may remind you of a screened-in porch. They’re covered with a fine copper mesh. This mesh, combined with the metal walls, creates a Faraday Cage – a covering that blocks radio waves from outside the lab which can cause noise during sensitive experiments.
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Wire EDM Machine


The Electrical Discharge Machine (EDM) carries out a metal fabrication process known as Spark Machining. A metal piece is shaped using electrical discharges (sparks). Material is removed from the work piece by a series of rapid discharges between two electrodes. Extremely hard materials like carbides, ceramics, titanium alloys, and heat-treated steels can be precisely machined by an EDM.
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Wire, Cable, and Parts Supplies


The Electronics Shop keeps an inventory of wires and cables, an important part of electrical and electronics work, which transmit signals, power, and data between various devices and components.
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Witches’ Hats


The black cones known as “witches' hats” absorb unwanted microwaves, echoes that would otherwise blur the signal of interest. This enables very high sensitivity, so scientists can run experiments on a material even if they have a very small amount. This capability is very important in structural biology.
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Wooden Chair


The simple wooden chairs at the top of our magnet platforms don’t seem to belong with all of our high-tech equipment. But these chairs are basic for a reason. They contain no magnetic materials so they won’t be pulled toward the magnet. And they offer researchers a place to sit as they may spend hours on the platform carefully loading their sample into the center of the magnet.
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An armadillo made of bitter disks is among many pieces of bitter disk artwork found throughout the MagLab.
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An armadillo made of bitter disks is among many pieces of bitter disk artwork found throughout the MagLab.
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