NanoFrazor使用与制图相同的针尖，对书写结构进行原位检测。该技术源自诺贝尔奖获得者格尔德-宾尼格（Gerd Binnig）的发现，即 IBM Millipede 悬臂的电阻与距离密切相关。这一发现促成了易于使用且可靠的NanoFrazor距离传感方法，从而能够对软表面（如抗蚀剂涂层）的高分辨率浅层形貌进行快速成像和精确计量。
NanoFrazor使用与制图相同的针尖，对书写结构进行原位检测。该技术源自诺贝尔奖获得者格尔德-宾尼格（Gerd Binnig）的发现，即 IBM Millipede 悬臂的电阻与距离密切相关。这一发现促成了易于使用且可靠的NanoFrazor距离传感方法，从而能够对软表面（如抗蚀剂涂层）的高分辨率浅层形貌进行快速成像和精确计量。
Related images
An atomic resolution transmission electron micrograph of a single NanoFrazor tip
(Courtesy of Heidelberg Instruments Nano)
A NanoFrazor read image of DNA strands on a mica substrate - the height of the strands is 2 A.
(Courtesy of Heidelberg Instruments Nano)
NanoFrazor AFM image of IBM logo written 4 nm deep into PPA resist with 8 nm half-pitch resolution.
NanoFrazor AFM image (3D view) of a multilevel hologram written in PPA resist with NanoFrazor Explore. The image is taken during the patterning process.
NanoFrazor AFM image of a photon sieve written into PPA by NanoFrazor Explore.
(Courtesy of Adam Jeff, CERN)
PPA residues on a ZnSe surface as imaged by the NanoFrazor
(Courtesy of Heidelberg Instruments Nano)
