Materials Science
investigation of material properties
Material Science is the design and discovery of new materials, particularly of solids. These new materials require analysis on the nanometer scale to fully understand the intrinsic properties of the surface and bulk. For this analysis, different measurement schemes are offered, such as low temperature confocal microscopes (CFM) for RAMAN measurements, setups for conductive tip AFM and Kelvin probe force microscopy (KPFM) as well as the double rotator 3DR or the Tramea TMS measurement setup. The environments are generated using closed cycle liquid helium free cryostats with temperatures between 300K and 2K. High fields up to 12T are possible and expand the options for measurements.
Research Fields
- electronic material properties
- ferroelectrics, multiferroics & domain walls
- magnetic material properties
- phase transition imaging
- optical material properties
- magnetic imaging
- chemical nano identification
- vector field mapping
- material synthesis & characterization
Application Snippets
Single Spin Magnetometry at the Nansocale
Uncompensated Bound Charges at Improper Ferroelectric Domain Walls
Fine-scale Stripey Morphology of an Iron Pnictide - New Findings in Material Science
A nanoscale quantum sensor at high pressures
Rotating transport measurement setup at 25mK
Nanoscale phase transitions
Characterization of optical surface waves
nano-FTIR beats the diffraction limit in infrared bio-spectroscopy and probes secondary structure in individual protein complexes
Terahertz near-field microscopy below 30nm spatial resolution
Measurements of field-driven transformation of a domain pattern
Quantized Conduction on Domain Walls of a Magnetic Topological Insulator
Angle-dependent characterizations of materials
MFM for Optimization of Sintered Magnets
Vortex Barriers in Iron Pnictides
Low Temperature MFM on Artifical Spin Ice
Piezo-Response Force Measurements on Ferroic Oxide Films
Stress-strain behavior of fibrous biological material measured using an AFM/SEM hybrid
Transition from slow Abrikosov to fast moving Josephson vortices
Scanning Microwave Impedance Microscopy at 4 K and 9 T
Magnetic Resonance Imaging of Nanoscale Virus at 300 mK
Scanning probe microscopy in an ultra-low vibration closed-cycle cryostat
Visualization of Edge State in LPCMO Manganite Strip
Vortex Imaging on Iron Pnictides using the attoMFM Ixs
Angle Dependent Magnetoresistance Measurement at Cryogenics
attoAFM I Mounted on Mixing Chamber
MFM on Co Doped Mn2Sb Single Crystal
attoAFM III in Toploading Insert
Link between bulk electric and microscopic magnetic properties of LaPryCaMnO
Switching the Magnetic Vortex Core in a Single Nanoparticle
Conductive-Tip AFM Measurements on Ruthenium
High Resolution MFM on Bit Patterned Media Co-Pd at 10K
Helimagnetic Phase of FeCo0.5Si0.5
attoAFM III Mounted on Mixing Chamber
Imaging Fractional Incompressible Stripes in Quantum Hall Systems
MFM imaging of a Skyrmion lattice
Related Products
Low Temperature Nanopositioners
Cryogenic nanopositioners are designed for nanopositioning over millimeter ranges with the highest precision under extreme conditions such as cryogenic temperatures, high magnetic fields, and ultra high vacuum.
Liquid Helium Cryostats
The attoLIQUID helium-based cryostats feature variable temperature down to the mK range, large sample space, fast cooldown and ultra-low vibrations.
Scanning Probe Microscopes
With our scanning probe microscopes, attocube is the unchallenged industry leader in materials characterization on the nanoscale at low temperatures and in high magnetic fields.
Closed-Cycle Cryostats
The attoDRY closed-cycle cryostats liberate the user from liquid helium, and feature large sample space, automated temperature and magnetic field control, fast cooldown and low vibrations.