Materials Mechanics
Monocular 3D Video Extensometer
A non-contact extensometer based on monocular 3D DIC technology. The extensometer is positioned outside the high/low-temperature environmental chamber, and the measuring head captures images of the specimen loading process through the chamber window. The extensometer software computes the images and outputs deformation results in real time. An optional full-field measurement module enables full-field displacement and strain measurement.

Laser Focusing

0.5-Class Accuracy

Zero-Latency Communication

Strain Control Capability

Measurable Temperature Range -190℃—2300℃

Monocular 3D DIC Technology
Testing mechanical properties under extreme heat places exceptional demands on equipment, especially at 2200°C. Carbon/carbon (C/C) composite, with high-temperature resistance and strength, is widely used in aerospace. Haytham DIC technology delivers full-field strain measurement for biaxial tensile testing of C/C at 2200°C.
Carbon fiber rebars are widely used in aerospace and high-performance structures for their light weight and high strength. Accurately measuring the compression performance of 7mm carbon fiber rebar at 300°C is a real testing challenge. Non-contact DIC captures full-field compressive deformation at high temperature for dependable verification.
High-temperature deformation behavior is a key factor in carbon plate performance. To measure it accurately at elevated temperature, the Haytham monocular 3D video extensometer provides an innovative solution that outperforms traditional methods, delivering stable non-contact deformation data.
In the full-field high-temperature tensile test of aircraft skin titanium alloy at 650°C, the Haytham high-temperature video extensometer based on monocular 3D DIC technology played a key role as an advanced non-contact full-field measurement technique, delivering reliable strain and deformation data throughout the test.
UHPC is a concrete material with extremely high strength and durability, widely used in bridges, buildings, and other infrastructure. Its performance under extreme heat still requires study to ensure safety in fires, making high-temperature tensile testing with DIC full-field measurement valuable.