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![This is an image of the magnetic domain distribution of a certain two-dimensional material with a scanning range of 20 μm. In the image, it is clearly visible that the magnetic domains within the material are distributed in a "maze-like" pattern.">](/image-gallery/page_2.html?screening=1&zd_pss="box">
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<img loading="lazy" src="/uploads/upload/20251030/251030142I6453.webp" alt="Standard Wafer" class="middleCenter">
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<div class="title">Standard Wafer</div>
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<li data-src="/uploads/upload/20251030/251030142Q3Y7.jpg" data-sub-html="<h3>Tape Magnetic Domains</h3><p>This is an image of the magnetic domain distribution on the surface of a tape with a scanning range of 80 μm. In the image, the periodic distribution pattern of the magnetic domains can be clearly observed.</p>">
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<img loading="lazy" src="/uploads/upload/20251030/251030142Q3Y7.webp" alt="Tape Magnetic Domains" class="middleCenter">
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<div class="title">Tape Magnetic Domains</div>
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<li data-src="/uploads/upload/20251030/251030142U6141.jpg" data-sub-html="<h3>LiNbO3 Ferroelectric Film</h3><p>This is a Lockin Phase image of a LiNbO3 ferroelectric film with periodic polarization and a scanning range of 20 μm. The purple and green areas represent different piezoelectric domain regions with a phase difference of 180°. Lithium niobate crystals have excellent piezoelectric properties and are one of the most widely used new inorganic materials.</p>">
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<img loading="lazy" src="/uploads/upload/20251030/251030142U6141.webp" alt="LiNbO3 Ferroelectric Film" class="middleCenter">
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<div class="title">LiNbO3 Ferroelectric Film</div>
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<li data-src="/uploads/upload/20251030/251030143305b4.jpg" data-sub-html="<h3>The Surface Potential of 2D Materials</h3><p>This is a surface potential image of hexagonal Boron Nitride (h-BN) with a scanning range of 10 μm. In the image, it can be clearly seen that the surface potential is irregularly distributed within h-BN.</p>">
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<img loading="lazy" src="/uploads/upload/20251030/251030143305b4.webp" alt="The Surface Potential of 2D Materials" class="middleCenter">
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<div class="title">The Surface Potential of 2D Materials</div>
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<li data-src="/uploads/upload/20251030/25103014442TP.jpg" data-sub-html="<h3>Microelectrode</h3><p>This is a microelectrode surface topography image with a scanning range of 28 μm, and its height is approximately 120 nm.</p>">
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<img loading="lazy" src="/uploads/upload/20251030/25103014442TP.webp" alt="Microelectrode" class="middleCenter">
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<div class="title">Microelectrode</div>
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<li data-src="/uploads/upload/20251030/251030144541225.jpg" data-sub-html="<h3>2D Material){kind=link}
This is an image of the magnetic domain distribution of a certain two-dimensional material with a scanning range of 20 μm. In the image, it is clearly visible that the magnetic domains within the material are distributed in a "maze-like" pattern.
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2D Material's Magnetic Domains
Polymer Particle
Glass Substrate
The Square-Shaped Pattern of the PZT Material