914160-1

The 914160-1 application field and working principle refers to a microscopic imaging system. It is a system that is capable of producing very high-resolution images. The system is used in electron microscopy and is capable of displaying images with a resolution that surpasses light microscopy. This system has become a staple in the fields of biochemistry, pathology, proteomics, and others where high resolution imaging is necessary.

The system utilizes electron gun technology which consists of a gun with a source of electrons. This source of electrons is then accelerated and focused using an electric field gradient and then scanned across the sample, forming a pattern or image. The resulting image is then sent to the detector system which further enhances the resolution of the image. This system is capable of producing images of extremely small objects which is why it is highly valuable in the research and analysis of very small structures.

The system operates by having an electron gun, an electrically tunable lens, a grid, an electron emission source, and a sensing unit. The electron beam is first accelerated and focused using controllable electric fields and scanned across the sample. The image is transmitted to the detector which amplifies the image. The higher the magnification and resolution of the image, the longer the scan time. Once the scan is complete, the image is then sent to a computer for further processing.

The most important benefit of this system is its ability to produce detailed images even at very low magnifications. This makes it very useful for applications where the samples being examined are too small or intricate to be imaged by other imaging technologies. For instance, in proteomics, this system is used to image protein molecules while in pathology, it is used to identify cancer cells and other tissue samples.

In addition to its application in medical science, the system can also be used for research and industrial applications. For instance, the system can be used to characterize the structure of materials, analyze the assembly of complex materials, and detect defects or irregularities in products. It can also be used to study three-dimensional objects such as microelectromechanical systems.

The 914160-1 application field and working principles are an invaluable tool in modern medical and scientific research. Its high resolution imaging capabilities make it highly valued in many areas, such as biochemistry, pathology, proteomics, and others where detailed images are necessary. Additionally, its ability to produce detailed images at low magnifications makes it very useful in industrial and research applications. This system has become a staple in many fields, making it an essential part of modern science and technology.