TEM Magnetizing Brochure | Hummingbird Scientific

Apply controlled in-plane magnetic fields up to 900 Gauss during in-situ TEM, Lorentz TEM, and electron holography with passive beam deflection compensation for stable imaging.

Technical Specs

1700 series

Sample Substrate Size

1 mm x 2 mm

In-Plane Applied Magnetic Flux Density

Up to ±300 Gauss, depending on microscope and pole piece

Electron Imaging

From -300 Gauss to +300 Gauss applied field during imaging depending on microscope and pole piece

Beam Deflection

Integrated passive magnetic beam deflection compensation

Available For:

www.hummingbirdscientific.com ©Hummingbird Scientific 2026 -The specifications provided are subject to change without notice.

Key Features and Capabilities

Calibrated In-Plane Applied Magnetic Field

Generate precisely controlled in-plane magnetic fields of up to ±300 Gauss directly at the specimen during TEM and STEM imaging

Passive Beam Deflection Compensation

Maintain stable TEM imaging during magnetic field application with passive compensation of field-induced electron beam deflection

In-Stock Magnetizing Chips

Accelerate magnetic TEM experiments with compatible magnetizing chips that are in stock and ready to ship

www.hummingbirdscientific.com ©Hummingbird Scientific 2026 -The specifications provided are subject to change without notice.

Built for Diverse Applications

Quantum Materials

Investigate phase transitions, defect dynamics, and electronic properties in quantum materials.

Phase Transitions

Electronic Properties

Defect Dynamics

Quantum Heterostructures

Domain Evolution

Atomic resolution image of 2D material flakes

Low Dimensional Materials

Study growth, electrochemistry, and structural evolution in 2D materials, nanowires, and quantum dots.

2D Materials Growth

Ion Intercalation

Defect Evolution

Phase Transformations

Surface Chemistry

Featured Research

Artificial skyrmions and antiskyrmions in Co/Pt multilayers observed by in-situ magnetizing Lorentz TEM

Comparison of simulated (left) artificial skyrmions and antiskyrmions to real skyrmion (top)and antiskyrmion (bottom) domains imaged using Lorentz TEM. Inset schematic illustrates artificial engineering process using ion irradiation.

Reference: S. Zhang, et al. Scientific Reports (2016). DOI: 10.1038/srep31248

www.hummingbirdscientific.com ©Hummingbird Scientific 2026 -The specifications provided are subject to change without notice.

Selected Publications

Charudatta Phatak, John Fullerton, Hanu Arava. “Automated imaging of the annihilation of a transverse domain wall in patterned magnetic thin films”. APL Materials (2025)

DOI:

10.1063/5.0270455

V Brajuskovic, F Barrows, C Phatak, A K Petford-Long. “Real-space observation of magnetic excitations and avalanche behavior in artificial quasicrystal lattices”. Scientific Reports (2016)

DOI:

10.1038/srep34384

S. Zhang, A. K. Petford-Long, C. Phatak. “Creation of artificial skyrmions and antiskyrmions by anisotropy engineering”. Scientific Reports (2016)

DOI:

10.1038/srep31248

A. Budruk, C. Phatak, A.K. Petford-Long, M. De Graef. “In situ lorentz TEM magnetization study of a Ni-Mn-Ga ferromagnetic shape memory alloy”. Acta Materialia (2011)

DOI:

10.1016/j.actamat.2011.04.031

A. Budruk, C. Phatak, A.K. Petford-Long, M. De Graef. “In situ Lorentz TEM magnetization studies on a Fe-Pd-Co martensitic alloy”. Acta Materialia (2011)

DOI:

10.1016/j.actamat.2011.07.020