德國Attocube Systems AG公司成立于2002年，作為納米科學領域年輕的儀器供應商，Attocube Systems AG以其掌握的納米精度定位**成果和強大的技術實力，在短短的幾年中研制開發了低震動無液氦磁體與恒溫器、多種低溫磁場下工作的掃描探針顯微鏡、極端環境應用納米精度位移器、皮米精度位移激光干涉器等系列產品，深受用戶贊譽。自成立以來，Attocube Systems AG已經獲得了許多榮譽，包括Finalist for the 27th Innovation Award of the German Ecomomy 2007和 ****00 Innovation Award 2013 等。

無液氦低溫強磁場掃描探針顯微鏡

參數與技術特點：

+ 無液氦，閉路可循環系統

+ 獨特設計，超低震動（0.12 nm RMS）

+ 溫度范圍：1.5 K...300 K 或 4 K...300 K

+ 磁場強度：**可達15T

+ 多功能測量平臺：AFM/MFM/ct-AFM/PRFM/CFM/RAMAN

+ 超高溫度穩定性

+ 全自動控制，觸摸屏控制

+ 快速冷卻：1-2小時樣品冷卻

相關閱讀：

1、無液氦低溫強磁場共聚焦顯微鏡 - attoCFM

2、低溫強磁場原子力/磁力/掃描霍爾顯微鏡 - attoAFM/attoMFM/attoSHPM

3、磁共振顯微鏡/低溫強磁場磁共振顯微鏡 - attoCSFM

4、低震動無液氦磁體與恒溫器 - attoDRY系列

5、atto3DR低溫雙軸旋轉臺

部分發表文獻：

1. Chaoyang Lu et.al， Coherently driving a single quantum two-level system with dichromatic laser pulses， Nature Physics， 15，941-945，(2019)

2. Chaoyang Lu et.al， Towards optimal single-photon sources from polarized microcavities. Nature Photonics， 13， 770–775 (2019)

3. Yuanbo Zhang et. Al， “Signatures of tunable superconductivity in a trilayer graphene moiré superlattice”Nature， 572， 215-219 (2019)

4. P. Maletinsky et. Al， Probing magnetism in 2D materials at the nanoscale with single-spin microscopy， Science， 364， 973 (2019)

5. Haomin WANG et al， “Isolating hydrogen in hexagonal boron nitride bubbles by a plasma treatment”.Nature communications， 10， 2815 (2019)

6. Mingyuan Huang et.al， Magnetic Order-Induced Polarization Anomaly of Raman Scattering in 2D Magnet CrI3， Nano Letters， 2020，20，1， 729-734

7. Alexander H?gele et. al， Cavity-control of interlayer excitons in van der Waals heterostructures， Nature communications， 2019，10:3697.

8. Hanxuan Lin， et al. Unexpected Intermediate State Photoinduced in the Metal-Insulator Transition of Submicrometer Phase-Separated Manganites. Phys. Rev. Lett. 120， 267202(2018)

9. Chaoyang Lu et.al， High-efficiency multiphoton boson sampling. Nature Photonics， 11， 361-365， (2017)

10. K. Yasuda， et al. Quantized chiral edge conduction on domain walls of a magnetic topological insulator. Science 2017， 358， 1311-1314

11. Zhu， Y. et al. Chemical ordering suppresses large-scale electronic phase separation in doped manganites. Nature communications， 2016，7:11260.

12. Yang， W.;et al. Electrically Tunable Valley-Light Emitting Diode (vLED) Based on CVD-Grown Monolayer WS2. Nano Letters 2016， 16， 1560-1567.

13. Surajit Saha; et al. Long-range magnetic coupling across a polar insulating layer， Nature communications， 2016，7:11015.

14. He， Y. M.; et al. Single quantum emitters in monolayer semiconductors.Nature Nanotechnology 2015， 10， 497-502.

15. Nazin， G.; et al. Visualization of charge transport through Landau levels in graphene. Nature Physics 2010， 6， 870-874.

16. Proton magnetic resonance imaging using a nitrogen–vacancy spin sensor. Nature Nanotechnology， 2015，10，120-124.

17. Nanoscale nuclear magnetic imaging with chemical contrast. Nature Nanotechnology， 2015， 10， 125-128.

18. Observation of biexcitons in monolayer WSe2. Nature Physics， 2015， 11， 477-481.

19. Visualization of a ferromagnetic metallic edge state in manganite strips. Nature Communications， 2015， 6:6179.

20. Observation of Excitonic Fine Structure in a 2D Transition-Metal Dichalcogenide Semiconductor. ACS Nano， 2015， 9， 647-655.

21. Energy losses of nanomechanical resonators induced by atomic force microscopy-controlled mechanical impedance mismatching. Nature Communications， 2014， 5:3345.

22. Deterministic and electrically tunable bright single-photon source. Nature Communications， 2014， 5:3240.

23. Dynamic Visualization of Nanoscale Vortex Orbits. ACS Nano， 2014， 8， 2782-2787.

24. Transition from slow Abrikosov to fast moving Josephson vortices in iron pnictide superconductors. Nature Materials， 2013， 12， 134-138.

25. Stray-field imaging of magnetic vortices with a single diamond spin. Nature Communications， 2013， 4:2279.

26. Realization of pristine and locally tunable one-dimensional electron systems in carbon nanotubes. Nature Nanotechnology， 2013， 8， 569-574.

27. Strong magnetophonon resonance induced triple G-mode splitting in graphene on graphite probed by micromagneto Raman spectroscopy. Physical Review B， 2013， 88， 165407.

28. Origin of negative magnetoresistance of GaAs/(Ga，Mn)As core-shell nanowires. Physical Review B， 2013， 87， 245303.

29. Magnetic Imaging on the Nanometer Scale Using Low-Temperature Scanning Probe Techniques. Microscopy Today， 2011， 19， 34-38.

30. Visualization of charge transport through Landau levels in graphene. Nature Physics， 2010， 6， 870-874.

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attocube公司產品以其穩定的性能、極高的精度和良好的用戶體驗得到了國內外眾多科學家的認可和肯定。attocube公司的產品在國內也得到了低溫、超導、真空等研究領域**科學家和研究組的歡迎......