Permanent Magnet Kerr Microscope Product Introduction Designed for in-depth research on permanent magnet materials, this advanced precision testing instrument enables high-resolution precise measurement and detailed observation of longitudinal, transverse, and vertical magneto-optical Kerr effects under stringent testing conditions of strong magnetic fields, ambient temperature, and high temperature. To ensure sample stability during testing under strong magnetic forces, it

Multifunctional MOKE Microscope For SOT Analysis Product Description: One of the key features of the Multifunctional Spin-Test Magneto-Optic Kerr Microscope is its Microsecond Ultrafast PulseVertical Magnetic Field, which provides a vertical magnetic field strength of 60 mT with a rise time of 0.5 Us and a pulse width ranging from L Us to 10 Us. This ultrafast pulse capability allows researchers to capture dynamic magnetic processes with exceptional speed and accuracy. For

Multifunctional Spin-Test Magneto-Optic Kerr Microscope Product Model: KMPL-S Equipment Description: This instrument enables high-resolution magnetic domain imaging of magnetic materials and spintronic chips, with a resolution of up to 250 nm. It is equipped with a highly intelligent control system and multifunctional magnetic field probe station, integrating optical imaging, multi-dimensional magnetic fields, electrical transport characterization, microwave testing, and

Product Description: The Kerr Microscope is a highly specialized instrument designed for advanced magnetic field research and material characterization. It offers exceptional precision and stability, making it an indispensable tool for scientists and engineers working in the fields of magnetism and material science. One of the standout features of this microscope is its remarkable temperature stability, maintaining an ultra-fine control within ±50 millikelvin (mK). This

High Sensitivity Kerr Microscope For Magnetic Thin Films Product Description: The Multifunctional Spin-Test Magneto-Optic Kerr Microscope is a cutting-edge instrument designed for advanced research in the field of spintronics. This state-of-the-art MOKE microscope offers automated measurements and precise analysis capabilities, making it an essential tool for researchers working with spintronic devices. Equipped with an Electrical Source Meter, specifically the Keithley 6221

Vector MOKE Microscope For 3D Analysis Of Hard Magnetic Materials Product Description: The Permanent Magnet Kerr Microscope is a cutting-edge tool designed for high-resolution imaging and detailed observation of magnetic materials. With a variable temperature range of 298 K to 798 K, this microscope enables researchers to study material properties across a wide temperature spectrum, allowing for in-depth analysis of magnetic behavior under varying thermal conditions.

Product Description: The Kerr Microscope is an advanced imaging instrument designed for precise analysis in the field of micromagnetic technology. Utilizing the Magneto-Optical Kerr Effect, this Permanent Magnet Kerr Microscope offers unparalleled capabilities for studying magnetic properties at a microscopic level, making it an indispensable tool for researchers and scientists working with magnetic materials. One of the standout features of this Kerr Microscope is its

Product Introduction Designed for in-depth research on permanent magnet materials, this advanced precision testing instrument enables high-resolution precise measurement and detailed observation of longitudinal, transverse, and vertical magneto-optical Kerr effects under stringent testing conditions (strong magnetic fields, ambient temperature, high temperatures). To ensure sample stability during testing under strong magnetic forces, it features an air-floating displacement

High Sensitivity MOKE For Weak Magnetism And 2D Material Study Product Description: With a variable temperature range spanning from 4.2 K to 420 K, researchers have the flexibility to study a wide range of materials under different thermal conditions. This broad temperature range is ideal for investigating the properties of weak magnetic materials at low temperatures, providing valuable insights into their behavior and magnetic responses. One of the key features of this