Toward Super-High Field and Ultra- Compact Size NMR Magnets Operated Beyond 1 GHz (review) Hideaki MAEDA RIKEN, Japan

Similar documents
Lecture #2 Design Guide to Superconducting Magnet

Update on the Developments of Coated Conductor High Field Magnets in Japan

UHF Magnet Development at MIT

doi: /j.physc

High Magnetic Field Science and the Magnetic Resonance Industry

Spatial and Temporal Variations of a Screening Current Induced Magnetic Field in a Double-Pancake HTS Insert of an LTS/HTS NMR Magnet

Ultra High Field MRI Magnets: Present Situation and Future Perspectives

NMR Instrumentation BCMB/CHEM Biomolecular NMR

Development of a magnetic resonance microscope

Simultaneous measurement of critical current, stress, strain and lattice distortions in high temperature superconductors

Flux Motion and Screening Current in High-temperature Superconducting Magnets

Study on Trapped Field Characteristics of HTS Bulk Annuli With Iron Rings for Ferromagnetic Shimming of a Compact NMR Magnet

HTS Magnets for Accelerator Applications

Application of SuperPower 2G HTS Wire to High Field Devices

High-Temperature Superconducting Magnets for NMR and MRI: R&D Activities at the MIT Francis Bitter Magnet Laboratory

Experimental Investigation of High-Temperature Superconducting Magnet for Maglev

Continued Developments in High Magnetic Fields Enabled by Second-Generation High- Temperature Superconductors

Innovative fabrication method of superconducting magnets using high T c superconductors with joints

1st Performance Test of the 25 T Cryogen-free Superconducting Magnet

Author(s) Atsushi; Urayama, Shinichi; Fukuyam. Citation Physics Procedia (2015), 65:

High Field HTS SMES Coil

Higher Magnetic Fields are on the Horizon: What Science will be Facilitated? When will all of this Happen?

An Analytical approach towards passive ferromagnetic shimming design for a high-resolution NMR magnet

Impact of High-Temperature Superconductors on the Superconducting Maglev

Bi2212 High Temperature Superconductors Prepared by the Diffusion Process for Current Lead Application

Batavia, Illinois, 60510, USA

Experience in manufacturing a large HTS magnet for a SMES

Mitigation of Demagnetization of Bulk Superconductors by Time-Varying External Magnetic Fields

Superconducting Magnet Design and R&D with HTS Option for the Helical DEMO Reactor

2G HTS Wire and High Field Magnet Demonstration

Validation of COMSOL -Based Performance Predictions of Bi-2212 Round Wire Prototype Coils

2G HTS Coil Winding Technology Development at SuperPower

16.1 Introduction to NMR Spectroscopy. Spectroscopy. Spectroscopy. Spectroscopy. Spectroscopy. Spectroscopy 4/11/2013

The GENERATION, MEASURING TECHNIQUE AND APPLICATION OF PULSED FIELDS. R.Grössinger

RE-Ba 2 Cu 3 O 7-d coated conductor helical cables for electric power transmission and SMES

David Larbalestier and Mark Bird National High Magnetic Field Laboratory Florida State University, Tallahassee FL 32310

Development of axial flux HTS induction motors

High Magnetic Field Science and Technology

Critical Current Properties of HTS Twisted Stacked-Tape Cable in Subcooled- and Pressurized-Liquid Nitrogen

Central Solenoid Winding Pack Design

Recent Developments in YBCO for High Field Magnet Applications

EuCARD-2 Enhanced European Coordination for Accelerator Research & Development. Journal Publication

Polyhelix ECR & high field magnet development at LNCMI: an emergent synergy F. Debray, CNRS, LNCMI-Grenoble

Progress Towards A High-field HTS Solenoid

of a Large Aperture High Field HTS SMES Coil

Chapter 7. Nuclear Magnetic Resonance Spectroscopy

Applications Using SuperPower 2G HTS Conductor

Design Principles of Superconducting Magnets

Interpretable and Compositional Relation Learning by Joint Training with an Autoencoder

Permanent magnet pre-polarization in low field MRI measurements using SQUID

Honghai Song. Yawei Wang, Kent Holland, Ken Schrock, Saravan Chandrasekaran FRIB/MSU & SJTU June 2015, SJTU Xuhui Campus

Magnet Technology for Nuclear Magnetic Resonance from DC Powered Magnets to Prospects for High Temperature Superconducting Magnets

LEAP2016. Measurement of muonium hyperfine structure at J-PARC

Material, Design, and Cost Modeling for High Performance Coils. L. Bromberg, P. Titus MIT Plasma Science and Fusion Center ARIES meeting

Feasibility of HTS DC Cables on Board a Ship

Multiphysics Simulations for the design of a Superconducting magnet for proton therapy

Superconducting Magnet with a Minimal Steel Yoke for the Future Circular Collider Detector

MASSACHUSETTS INSTITUTE OF TECHNOLOGY DEPARTMENT OF MECHANICAL ENGINEERING DEPARTMENT OF NUCLEAR ENGINEERING 2.64J/22.68J , : & HTS

2G HTS Wires for High Magnetic

R&D of applied superconductivity by a small business: experiences and future perspective. Donald Pooke PL-4 ISS 2017 V Chamritski, M Fee, T Huang

Atomic magnetometers: new twists to the old story. Michael Romalis Princeton University

Recent advances of iron-based superconducting wires and tapes

Solid-Cryogen Cooling Technique for Superconducting Magnets of NMR and MRI

Electromagnetic Design of 10 MW Class Fully Superconducting Wind Turbine Generator

Development of a Compressor for a Miniature Pulse Tube Cryocooler of 2.5 W at 65 K

Magnetic field generation. Sergey L. Bud ko

Introduction to Nuclear Magnetic Resonance Spectroscopy

Effect of Discontinuities and Penetrations on the Shielding Efficacy of High Temperature Superconducting Magnetic Shields

Types of Analyzers: Quadrupole: mass filter -part1

Enabling Material Success

PROTEIN NMR SPECTROSCOPY

SUPPORTING INFORMATION. for. Maja Lambert, Lars Olsen, and Jerzy W. Jaroszewski* Contents

Confinement of toroidal non-neutral plasma in Proto-RT

Confinement of toroidal non-neutral plasma in Proto-RT

To be published in the Proceedings of ICEC-22, Seoul Korea, July 2008 MICE Note 232 1

High-Performance Y-based Superconducting Wire and Their Applications

Magnetisation of 2G Coils and Artificial Bulks

From 2G to Practical Conductors What Needs to be Improved?

Solid-state NMR and proteins : basic concepts (a pictorial introduction) Barth van Rossum,

Tests on Superconductor Gravitational Effects

Use of High Temperature Superconductors for Future Fusion Magnet Systems

World Record, High Magnetic Fields from Bulk Superconductors

HTc-SQUID BEAM CURRENT MONITOR AT THE RIBF

Magnetic field generation. Sergey L. Bud ko

Overview of HTS Large Scale Application in Japan

REBCO tape performance under high magnetic field

Xe nuclear spin maser and search for atomic EDM

I. INTRODUCTION. Fig. 1. Experimental apparatus for the strain measurements.

Design of a Sector Magnet for High Temperature Superconducting Injector Cyclotron

Which Superconducting Magnets for DEMO and Future Fusion Reactors?

Developments of the RCNP cyclotron cascade

Title conductor measured by a Walters spr. Author(s) Itoh, K; Kiyoshi, T; Wada, H; Selva

Low Energy RHIC electron Cooling (LEReC)

Magnetic and Cryogenic Design of the MICE Coupling Solenoid Magnet System

Helicon Plasma Thruster Experiment Controlling Cross-Field Diffusion within a Magnetic Nozzle

Ultra-high Resolution in Low Field Tabletop NMR Spectrometers

High-temperature superconducting magnet for use in Saturated core FCL

A trapped field of 17.7 T in a stack of high temperature superconducting tape

Second-generation HTS Wire for Wind Energy Applications

Chemistry Assignment #2 and TM Magnetism Handout. Determination of Unpaired Electrons in TM Complexes

Transcription:

Workshop "Ultrahigh field NMR and MRI: Science at the cross roads @ NIH Nov. 12, 2015 8:50-9:10 Toward Super-High Field and Ultra- Compact Size NMR Magnets Operated Beyond 1 GHz (review) Hideaki MAEDA RIKEN, Japan 1

Collaborators RIKEN Dr. Y. Yanagisawa Dr. T. Yamazaki Dr. M. Takahashi Dr. M. K. Pamdey JASTEC Dr. M. Hamada Dr. K. Kominato Kobe Steel Dr. T. Miki, Dr. K. Saito NIMS Late Dr. T. Kiyoshi Dr. T. Shimizu, Dr. G. Nishijima Dr. S. Matsumoto Dr. T. Noguchi, Dr. S. Ohki, Mr. A. Goto JEOL RESONANCE Mr. H. Suematsu Dr. Y. Nishiyama Dr. R. Tanaka, Dr. T. Nemoto, Dr. T. Miyamoto, Chiba University Prof. H. Nakagome Mr. R. Piao Sophia University Prof. T. Takao Mr. S. Iguchi This work is supported by Japan Science and Technology Agency(JST) 2

Outline Introduction 1. Real characteristics of medium-field LTS/HTS NMR magnets 2. 1.02 GHz LTS/Bi-2223 NMR magnet 3. New perspective on the super-highfield NMR magnets 3

Introduction 4

History of the NMR magnetic field NMR magnetic field (T) 40 30 20 10 Our target is to develop super-high field NMRs Super-high-field NMR 1GHz, 23.5T 1GHzNMR 920MHzNMR 0 1970 1980 1990 2000 2010 2020 Time (year) 1.5 1.0 0.5 0.0 High Temperature Superconducting (HTS) Magnets H c2 >>30T Low Temperature Superconducting (LTS) Magnets H c2 < 25-30T Critical magnetic field 5

Basic configuration of a superhigh field NMR HTS inner coil (high field) LTS outer coils (low field) LTS/HTS NMR magnet Cross-sectional view 6

Two commercialized HTS tape conductors 1st generation HTS 2nd generation HTS Silver Bi-2223 conductors Bi 2 Sr 2 Ca 2 Cu 3 O x 200MPa (insufficient) Substrate REBCO conductors RE 1 Ba 2 Cu 3 O x (RE: Y, Gd etc.) YBCO 700MPa (strong) 7

High conductor strength reduces the size of the magnet Magnetic field, B Current Tensile stress=bjr B: Field strength J: Current density R: Coil radius Lorentz force Radius, R Coil If the HTS conductor is strong, a higher current density is available, resulting in compact size magnet 8

Current perspective on the superhigh-field NMR magnet LTS/Bi-2223 NMR: the magnet size rapidly increases with the field intensity LTS 800 MHz 1.02 GHz LTS/Bi-2223 (~30MJ) 1.02 GHz 1.3 GHz LTS/Bi-2223 (~350MJ) 1.3 GHz LTS/REBCO NMR: The magnet size becomes much smaller 1.3GHz 1.3 GHz LTS/Bi-2223/REBCO (~13MJ) 9

マスタータイトルの書式設定 My question: is this true or is this false? 10

1. Real characteristics of medium-field LTS/HTS NMR magnets To check this out, a medium-field LTS/Bi-2223 NMR magnet and an LTS/REBCO NMR magnet were made, tested and compared so that we could achieve the basic knowledge on the performance of LTS/HTS NMRs 11

Operation mode of NMR magnets LTS NMR HTS NMR ~1 ppm Persistent current DC power supply Superconducting joint Persistent current mode Driven mode Field stabilization is difficult 12

A 500MHz-class LTS/ HTS NMR magnet operated in driven mode Bi-2223 inner coil ) REBCO inner coil Pulse-tube cryocooler Ultra-stabilized DC-power supply (2009) (2013) Id 81mm Od 121mm L 375mm LTS outer Id 81mm NMR coils Od 119mm L 400mm Y. Yanagisawa et al, JMR 203, 274-282 (2010) T. Kiyoshi et al, IEEE TAS 20, 714-717(2010) Y. Yanagisawa et al., JMR, 249, 38-48(2014) NMR probe 13

Problems of the LTS/HTS NMR magnet Field intensity (1) Temporal magnetic field stability : 0.1ppb (2) Spatial magnetic field homogeneity : 1 ppb 14

マスタータイトルの書式設定 (1) Temporal magnetic field stability 15

マスター Screening タイトルの書式設定 current induced magnetic field generated during the magnet charge HTS HTS If B s is relaxed with time, B 0 shows a positive drift (increase) 16

Temporal field drift after the magnet charge, due to the relaxation of the screening-current マスタータイトルの書式設定 LTS/Bi-2223 NMR Coil current Over field by 5 % Operation current Time 17

Stabilization of the magnetic field fluctuations(lts/bi-2223 NMR) Temporal field fluctuation in driven mode at the 20 th day Stabilized magnetic field Stabilized by using Internal 2 H lock for solution NMR External lock for solid state NMR 18

マスタータイトルの書式設定 (2) Spatial field homogeneity 19

Magnetic field correction system for the NMR magnet マスタータイトルの書式設定 HTS coil z HTS coil Room temperature shims <1ppm x, y Cryoshims(z,z 2,x,y, zx, zy, xy,x 2 -y 2 ) < 10 ppm Field correction coils, compensating z 2 and z 4 of the main coil < 500ppm The magnetic fields generated by the field correction coil and cryoshims are shielded by the screening current induced in the HTS inner coil 20

マスタータイトルの書式設定 (a) Field inhomogeneity Magnetic field (T) 11.7445 11.744 11.7435 LTS/ Bi-2223 NMR (500 MHz) Z 1 : -2.1 ppm at ±1 cm Z 2 : -0.41 ppm at ±1 cm << superconducting shim coils(a few ppm) Magnetic field (T) 11.7495 11.749 11.7485 LTS/ REBCO NMR (500 MHz) Z 1 : -23 ppm at ±1 cm Z 2 : -83 ppm at ±1 cm >> superconducting shim coils(a few ppm) z 11.743-1 -0.5 0 0.5 1, Axial position (cm) z, Shielding effect is negligible for the Bi- 2223 NMR coil 11.748-1 -0.5 0 0.5 1 z Axial z position (cm) (cm) Shielding effect on the correction coil is enormous; the z 2 component generated by the main coil is uncompensated and remains >> z 2 cryoshim 21

マスタータイトルの書式設定 (b) Performance reduction of cryoshims LTS/Bi-2223 NMR LTS/REBCO NMR Axial cryoshims (z and z 2 ) Radial cryoshims (x, y, zx, zy, xy, x 2 -y 2 ) 40% 20% 20-40% 5% The cryoshim performance is reduced, especially for LTS/REBCO NMRs 22

マスタータイトルの書式設定 (3) NMR spectrum 23

Spectral resolution and sensitivity for three types of NMR spectrometer マスタータイトルの書式設定 LTSNMR LTS/Bi2223 NMR LTS/REBCO NMR NMR resolution <1 Hz(2 ppb) 0.7 Hz(1.4 ppb) 15 Hz(38 ppb) NMR sensitivity S/N >600 512 28 (400 MHz) NMR resolution Chloroform Nearly the same NMR sensitivity Ethyl-benzene 1 H solution NMR spectrum 10-times worse than the LTS NMR 24

The #2 nd LTS/REBCO NMR magnet (2) Ferromagnetic-shims against radial error field harmonics,,,,, 2 2 (1) Innercryoshims Steel plates C2(S2) 2014 (RIKEN) JASTEC 101.5 mm ZX(ZY) 51 mm RT bore R. Piaoet al., to be published in JMR(2016) 25

Spectral resolution and sensitivity for three types of NMR spectrometer マスタータイトルの書式設定 LTS NMR (persistent) LTS/Bi-2223 NMR (driven mode) LTS/REBCO NMR (driven mode) NMR resolution <1 Hz(2 ppb) 0.7 Hz(1.4 ppb) 0.5Hz(1.3 ppb) NMR sensitivity >600 512 318@400MHz (444@500MHz) NMR resolution Chloroform Nearly the same NMR sensitivity Ethyl-benzene 1 H solution NMR spectrum The field correction was very difficult and required 2months 26

マスタータイトルの書式設定 2-D NOESY spectra for Lysozyme Low T 1 noise, water suppression 1 H [ppm] 1 H [ppm] 1 H [ppm] (a) 500MHz LTS NMR 1 H [ppm] (b) 500MHz LTS/ Bi-2223 NMR (c) 400MHz LTS/ REBCO NMR 27

2. 1.02 GHz LTS/Bi-2223 NMR Based on the method so far developed by using medium-field LTS/HTS NMR magnets, we proceeded to develop an LTS/ HTS NMR operated beyond 1 GHz More details will be given by Dr. Hamada in this workshop 28

1.02 GHz LTS/ Bi-2223 NMR 3.6 T HTS(Bi-2223) innermost coil 20.4 T LTS outer coils K. Hashi, et al.,jmr, 256, 30-33 (2015) 30

Solid-state 2D-NMR spectra(darr) for a membrane protein ( Aquaporin Z) 14 peaks 700 MHz Persistent mode Membrane 7 Hours with external lock MAS=15 khz; 2.5 mm rotor 70 khz; spinal64 decoupling Aquaporin 36 peaks 1.02 GHz Driven mode Dr. Yamazaki in RIKEN 7 Hours MAS=10.3 khz; 3.2 mm rotor; 70 khz; Spinal64 Decoupling H. Maeda et al., emagres (Wiley) to be published (2016) 31

One great leap! NMR magnetic field (T) 40 30 20 10 Super-high-field NMR 1GHz, 23.5T 1GHzNMR 920MHzNMR 0 1970 1980 1990 2000 2010 2020 Time (year) 1.5 1.0 0.5 0.0 This is one small step for an NMR magnet; one giant leap for super high field NMR -N. A. Armstrong of Apollo 11-32

3. New perspective of the super-high field NMR 33

We must reconsider the current perspective based on the screening current effect LTS/Bi-2223 NMR: The magnet size is large. The effect of screening current is small. LTS 800 MHz 1.02 GHz LTS/Bi-2223 (~30MJ) 1.02 GHz 1.3 GHz LTS/Bi-2223 (~350MJ) 1.3 GHz LTS/REBCO NMR: The magnet size is small. The effect of screening current is large. 1.3GHz 1.3 GHz LTS/Bi-2223/REBCO (~13MJ) 34

(a) New HTS conductors 200 MPa Bi-2223 conductor Bronze Reinforcement Screening current Mechanical strength REBCO conductor 700 MPa Screening current Mechanical strength Both high mechanical strength and low screening current are obtained 400 MPa Stronger Bi-2223 conductor Ni-alloy reinforcement Multi-filamentary REBCO conductor Separated into filaments (scribed) 35

(b) Optimal design New 1.2GHz LTS/ HTS NMR HTS inner coil LTS outer coil Thin solenoid of the HTS Y. Yanagisawa et al., JMR, 249, 38-48(2014) If we increase HTS coils, we can enhances the current density, reducing the magnet size 36

New perspective on the super-high field NMR a. New HTS conductors b. Optimal magnet design c. Simple cooling system 1.0 GHz NMR 1.3 GHz NMR 1.5 GHz NMR The next target! 37

マスタータイトルの書式設定 Finally -- So far we have limited our discussion to the HTS tape conductor, however we have another choice 38

Development of an LTS/ Bi-2212 NMR magnet Bi-2223/ Bi-2212/ REBCO NHMFL 1 mm Id 81 mm Od 118 mm L 2795 mm The screening current effect becomes negligible. D. C. Larbalestier et al.nature materials(2014) Y. Yanagisawa et al, JMR(2010) T. Kiyoshiet al, IEEE TAS (2010) NMR probe ( 1 H, 13 C, 15 N ) Will be installed in RIKEN in 2015 39

22 Thank you very much for your attention! RIKEN NMR Facility 40