Lunqin Laboratory, a subsidiary of Shuyun Instrument (Shanghai) Co., Ltd., is a research institution in China specializing in X-ray related testing. Since its establishment, the laboratory has always adhered to the operational philosophy of assisting our sales work by providing professional X-ray detection and analysis services and various solutions to customers, and is committed to providing assistance for the company's instrument sales business.
We are well aware that advanced scientific research equipment and professional scientific research capabilities are the key to driving the development of our company's sales business. Therefore, Shuyun Instrument has equipped the industry with advanced instruments and equipment according to the manufacturer's application laboratory standards, and has formed a technical team composed of experienced application engineers in the industry, in order to help customers understand our product performance more intuitively and efficiently through the presentation of experimental results. Recently, we have welcomed a new partner, the Bruker Multi Range Nanoscale 3D X-ray Microscope - SkyScan2214 CMOS, which will undoubtedly elevate the overall research capabilities of the beamformer instrument.


|

|
| SkyScan2214 CMOSOpen tube radiation source |
SkyScan2214 CMOS is an advanced nanoscale X-ray 3D imaging device, whose resolution capability represents the advanced level of current laboratory X-ray 3D imaging technology. The image resolution can reach 60nm, and the spatial resolution can reach<500nm. In addition, SkyScan2214 is a device capable of cross scale characterization, suitable for sample sizes ranging from small to tens of microns to large, such as diameter 300mm and height 400mm. Of course, the capability of the device cannot be separated from the strong support of hardware. SkyScan2214 CMOS adopts an open tube transmission radiation source that can achieve a smaller focal size. During use, only the filament needs to be replaced, which not only reduces maintenance costs but also ensures that the radiation source performance is always maintained in a high-efficiency state, thereby ensuring the quality of the output image. In addition, in terms of the traditional advantageous component of the SKyScan2214 device - the detector, the SkyScan2214 CMOS retains the multi detector configuration of the previous generation product (up to 4 can be configured), and has upgraded the hardware to a research grade CMOS detector, which means a larger imaging field of view, faster scanning speed, and better image quality for users.

|

|
|
SkyScan2214 CMOS Multi detector Configuration
|
In addition, SkyScan 2214 CMOS also has powerful software support, including various personalized scanning methods for different sample types and testing needs, 3D reconstruction, quantitative analysis, virtual slicing, 3D volume rendering and other functions. These software tools will provide multi angle and multi-dimensional data analysis capabilities from both image processing and quantitative analysis, enabling us to deeply explore and understand the internal information of samples.
Nanoscale 3D X-ray microscopy is a technology that can characterize the real 3D structure of samples in a non-destructive state. Therefore, SkyScan2214 CMOS can play an important role in different scientific research fields, including but not limited to oil and gas geology, pharmaceutical and medical equipment, cement and concrete, agricultural and forestry science, lithium battery new energy, semiconductor packaging and testing, life sciences, additive manufacturing, food science, archaeology, etc.
|

|
with300nmVoxel size scanCFRPGenerate a 3D model with color coded local fiber directions.
|
Lithium ion soft pack battery, to500nmScan voxel size. Generated volume rendering3DCharacterize each individual cathode particle in the model. |

|

|
with500nmPixel size scans foam. Use color coding for rendering to characterize the wall thickness distribution of the substrate. |
use600Nano voxel size scanning of cortical bone in the proximal femur of mice. The bone cell lumen (intercellular space) is represented in green, and the vascular channel is represented in red. |

|