High speed macro infrared thermal imager used for scientific research projects

In contemporary scientific research, the demand for transient, high-speed, non-contact temperature field measurement is becoming increasingly urgent. Accurately capturing the rapidly changing temperature field from microscopic chip heating to macroscopic aerothermal effects in aerospace, from life sciences to new material development, is the key to revealing the physical and chemical essence and verifying theoretical models. Gewu Youxin ExpresswaymacroInfrared thermal imager, with itsexcellentThe performance of is becoming an important tool for promoting cutting-edge scientific research, providing insights for researchersHigh speed temperature changesThe Hot WorldThe Eye of Wisdom.

Traditional temperature measurement methods (such as thermocouples) or ordinary infrared thermal imagers often struggle to cope with rapidly changing thermal phenomena. They are either single point measurements that cannot obtain full field information; Either the frame rate is too low, which will result in the loss of critical time resolution, making it impossible to accurately record millisecond or even microsecond level thermal events such as explosion shock, laser action, fluid transient heat transfer, material fracture, etc.

The core value of high-speed infrared thermal imagers lies in their ability to sample at a high rate (per second)hundreds ofCapture the temperature distribution on the surface of the target object in frames, and record the temperature data of each frame in the form of images and matrices, thereby achieving full field, visualization, and quantification of the entire thermal event process“slow motion”Replay and analysis.

Gewu Youxin high-speed micro thermal imagerX640H150UM25The instantaneous freezing and heat release process of captured millimeter sized tiny droplets

The Gewu Youxin high-speed macro infrared thermal imager has been applied in various scenarios of scientific research projects in major universities and research institutes

u Aerospace field:

Engine combustion chamber research: used to observe the temperature field changes throughout the entire process of fuel injection, atomization, ignition, and stable combustion, analyze combustion efficiency and unstable combustion phenomena, and provide data support for engine optimization design.

Infrared temperature distribution map of turbine blades captured by Gewu Youxin high-precision macro thermal imager X640F150UM95

u In the field of new energy and new materials:

Research on battery safety and performance: Real time monitoring of lithium batteries during charging and discharging, short circuit, needle puncture, overcharging, etccomplexThe initiation and propagation process of thermal runaway under working conditions, identification of thermal spots, study of failure mechanisms, and assistance in developing safer battery technologies.

Additive manufacturing (3D printing): Online monitoring of the temperature distribution and cooling rate of the molten pool during laser cladding or electron beam melting processes, optimization of printing process parameters, control of internal stress and defects, and improvement of product quality.

Infrared image of battery captured by Gewu Youxin X640 series

u Microelectronics and Optoelectronics:

Chip thermal management: used to capture the dynamic temperature rise of integrated circuits (ICs) and power devices (such as IGBTs, MOSFETs) in the nanosecond to microsecond range during switching transientsIdentify hotspots and analyze their causes, providing key basis for thermal design and reliability optimization of electronic devices.

Laser and optical component detection: It can achieve high-resolution imaging of laser beam energy distribution and quantitatively measure the absorption and heating effects of optical components under strong light irradiation.

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

u Biomedical and chemical fields:

Life Sciences: Study the temperature distribution and changes on the surface of small animals (such as mice) for drug efficacy evaluation, pathological research, etc. (ethical and measurement model correction should be noted).

Chemical reaction kinetics research: Real time capture of transient temperature field changes during intense reactions such as catalysis and synthesis, and correlation of reaction exothermic behavior and process evolution laws.

Thermal imaging of laboratory mice captured by Gewu Youxin X series

The integrated Gewu Youxin high-speed macro infrared thermal imager can provide the following core values for scientific research projects:

real-time observationThermal phenomenon: Accurately capturing transient thermal processes that were previously difficult to observe, providing key experiments for exploring scientific phenomenaHot dataaccording to

Validate numerical models: Provide high-precision, high spatiotemporal resolution measured data for simulation calculations such as CFD and FEA, effectively supporting the verification and optimization of theoretical models.

Drive design and process improvement: Based on real and reliable thermal testing data, accurately identify thermal characteristic bottlenecks, guide product structure design, process optimization, and performance improvement.

Enhance the quality of scientific research output: Obtain intuitive and accurate high-value thermal data, significantly improve the reliability of experimental data and the persuasiveness of papers, and assist in the publication of high-level academic achievements and the smooth completion of major scientific research projects.

Gewu Youxin ExpresswaymacroInfrared thermal imagers, with their high frame rate, high precision, and high reliability, have successfully broken the time barrier for observing thermal phenomena and become a modern scientific research toolHigh qualityTesting equipment. It will continue to empower researchers in various fields, explore the unknown, reveal the scientific laws behind the heat, and make important contributions to promoting technological progress.