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High-temperature extensometerDIC systemVideo extensometer
1600℃ High-Temperature 2D Extensometer Test

For the limited view through the small window of a high-temperature furnace, we recommended a 2D extensometer. By adjusting the device angle and optimizing the optical path, the 2D extensometer covers the key parts of the specimen within the limited view.

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Composite materialsHigh-temperature full-field strain
Deformation Test of Carbon Plate in High-Temperature Environment

Traditional contact measurement often interferes with the specimen surface in high-temperature tests, possibly affecting data accuracy. Haytham's monocular 3D video extensometer uses non-contact optical measurement, tracking carbon plate deformation optically to avoid physical-contact interference and ensure reliable test data.

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Composite materialsHigh-temperature compression
300℃ Compression Test of 7mm Carbon Fiber Rebar

For high-performance carbon fiber rebar, any contact measurement may damage its surface and affect results. Haytham's monocular 3D high-temperature video extensometer monitors specimen deformation in real time via optical tracking without contact, preserving specimen integrity and providing accurate data for subsequent analysis.

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Video extensometerRubber tensile testing
Large-Deformation Rubber Tensile Test

Traditional equipment often struggles to maintain accuracy with large-deformation rubber. Through 3D optical measurement, Haytham's monocular 3D video extensometer tracks subtle changes of rubber during tension in real time, ensuring highly accurate results.

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Video extensometerWire tensile testing
Tensile Test of 0.038mm-Diameter Wire

Tensile testing of fine wire demands both extremely high sensitivity and stable data during tension. With advanced image processing algorithms and high-resolution sensors, Haytham's monocular 3D video extensometer provides accurate strain data under very small deformation, fully meeting high-precision test requirements.

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Crack propagation analysisDIC system
Double-Cantilever Crack Propagation Analysis

In double-cantilever crack propagation analysis, Haytham's monocular 2D video extensometer analyzes crack growth behavior in real time and precisely through strain gradient, boundary recognition and residual gray-field modes. Strain gradient analysis identifies stress concentration regions of crack growth, boundary recognition tracks the crack path and width changes precisely, and residual gray-field analysis provides strain distribution around the crack, helping identify subtle changes in propagation.

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Material strainHigh-cycle fatigue
High-Cycle Fatigue Test of Metal Materials

Haytham's monocular 2D video extensometer is equipped with a dedicated fatigue measurement module that, working with the controller and software, fits N small cycles of high-cycle fatigue testing into 1 large cycle. This effectively reduces the data acquired per fatigue cycle, while cross-cycle photo capture ensures the DIC system tracks the specimen's deformation throughout.

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N-value and R-valueVideo extensometer
N-Value and R-Value Measurement of Sheet Metal

In the experiment, the sheet metal specimen was clamped in a tensile testing machine. Haytham's monocular 2D video extensometer monitored the specimen surface in real time and captured its deformation during tension. Based on method A of GB/T 5027-2016, the system precisely measured the plastic strain and computed the corresponding R-value. Since the system allows flexible selection of the plastic strain range, researchers can better control test conditions and ensure reliable results.

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Reduction of area2D video extensometer
Measurement of Material Reduction of Area and Elongation After Fracture

Measuring reduction of area requires precisely measuring the specimen's cross-section dimensions before and after fracture, while measuring elongation after fracture requires the longitudinal elongation after breaking. Single-direction traditional measurement may miss transverse deformation, making the data less comprehensive; moreover, inevitable manual errors make precise measurement of these parameters even more challenging.

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