Is the efficiency of chip detection low? Gewu YouxinmicroscopicMillisecond level positioning defect of thermal imaging instrument

In the wave of rapid development of the global semiconductor industry, the precision and efficiency of chip manufacturing have become the core factors determining industry competitiveness. As a precision industry, chip manufacturing faces severe challenges in capturing nanoscale defects in the detection process: the shortcomings of traditional detection methods in speed, accuracy, and real-time severely restrict the yield and mass production efficiency of chips. In this context, Gewu Youxinmicroscopicthermal imagerX 1280 series, X640 seriesTechnological breakthroughs, relying onMillisecond level response speed for micrometer level defect detection on chipsThe hardcore strength injects new momentum into the chip manufacturing industry.

Traditional optical detection technology is limited by the optical diffraction limit and difficult to break through the micrometer level defect recognition barrier, while electron microscopes, although possessing sub nanometer level accuracy, are trapped in slow detection speed and require destructive sampling“Accuracy and speed cannot be achieved simultaneously”The dilemma; At the same time, the abnormal thermal distribution of chip microstructures often leads to thermal runaway and failure, but traditional infrared thermal imagers are limited by insufficient spatial resolution and cannot accurately locate micro thermal defects; What highlights the contradiction is that the lengthy process of relying on manual re inspection seriously hinders the efficiency of testing, coupled with the sky high investment in testing equipment continuously squeezing the profit margin of enterprises, forming a“High cost, low efficiency, high risk”The vicious cycle has become a technological shackle that restricts industry breakthroughs.

Visible light camera chip core component capacitor 2mm * 3mm

Gewu Youxin Microscopic Thermal Imager X 1280 Series, X640 SeriespassmicroscopicLens and high-sensitivity infrared detector,Up to 1.3 million infrared pixel points can be visualized, allowing for high-definition thermal imaging and temperature measurement even for objects as small as 3 micronsIt can clearly capture the microscopic thermal distribution of the internal wires and solder joints of the chip；Support per secondMaximum 125HzHigh speed thermal imaging, real-time tracking of transient temperature changes during chip power on and operation, early warning of local overheating risks；Equipped with professional temperature measurement software and adjustable emissivity, it can accurately calibrate different thermal conductivity materials such as chip packaging resin, metal solder balls, ceramic substrates, etc., ensuring consistency in the detection of all types of chips including silicon-based, silicon carbide, gallium nitride, etc.

Gewu Youxin micro thermal imager X640F300UM25 captures 2mm * 3mm capacitors

Gewu Youxin micro thermal imager X640F300UM17 captures 2mm * 3mm capacitors

Gewu Youxin micro thermal imager X640F300UM8 captures 2mm * 3mm capacitors

Micrometer measurable|See the small to understand the great，Specially designed for measuring temperature of small objectsBorn

High quality detectors and professional algorithms are like a pair of "golden eyes" that help users perceive subtle differences in the image, capture small temperature differences in the scene, and enable the detected object to be fully displayed under the perspective of a "thermal imaging microscope".

Equipped with research specific brackets，Real time continuous online monitoring

In response to the small characteristics of the tested object, we are equipped with a research specific bracket that allows for real-time observation of the experimental object at a static distance, making thermal imaging scientific research operations more convenient and assisting in the smooth progress of research projects in fields such as fiber optic testing, heating wires, and non-destructive testing of chip materials. We support personalized Dingzhi and SDK secondary development to ensure that users can handle micro research with ease and ease.

More favored by usersmicroscopicthermal imager，The selection of major university units

The Gewu Youxin Microscopic Thermal Imaging System X series has assisted multiple research institutions in thermal imaging research projects, such as the study of material thermal effects at Peking University, resistance wire monitoring at Tsinghua University Shenzhen Research Institute, and laser crystal research at Zhejiang University. The thermal imaging system's delicate and clear imaging, as well as precise temperature measurement, are highly favored by research users.

Shooting model X640D150UM8 (microscopic)

Shooting model X640F615UM8 (microscopic)

Shooting model X640D150UM8 (microscopic)

Up to one million infrared pixels+microscopiclens，Micro object temperature measurement shows high definition

Gewu YouxinFor scientific research purposesThermal imaging camera, tailored to different customer needs,adoptDifferent resolutions such as 348 * 288、640*480、1280*1024Wait, microscope lenses with different focal lengths can be installed, such as1280*1024microscopicThermal imager 4.8 μ m lens、640*512Microscopic thermal imager with a 17 μ m lens640*512The 8 μ m lens of the micro thermal imager can achieve up to 1.3 million infrared pixel points with fine details, allowing for high-definition thermal imaging and temperature measurement even for objects as small as 3 microns.

Gewu Youxin X1280 thermal imager with 4.8 μ m microscope lens for infrared imaging

equipIRStudio research specific software，supportCurve analysis | Frame by frame analysis | Offline analysis

The IRStudio system is a professional infrared analysis software developed by Gewu Youxin for infrared thermal imagers and their derivative products. It has powerful recording and analysis functions, which can display, record, and analyze infrared data to support critical decisions and meet the practical application needs of users in research and development fields.