Materials Mechanics
Monocular 3D Video Extensometer
In a study of in-situ tensile testing of plant fibers, the team used Haytham's visual microscopic strain measurement system for detailed mechanical analysis. The system recorded fiber deformation during tension in real time and generated high-precision stress-strain curves.
Haytham's visual microscopic strain measurement system, with advanced DIC technology, provides a precise, efficient solution for tensile testing of biomaterial wires.
Based on monocular 3D DIC, Haytham's monocular 3D vision strain gauge captures high-resolution surface images and analyzes them precisely, achieving full-field, non-contact measurement of implant surface strain.
In front subframe displacement testing, ensuring measurement accuracy is critical. The test team used a dial indicator with 0.001mm accuracy, verifying the accuracy of Haytham's monocular 3D vision strain gauge against the dial indicator's displacement data.
Based on monocular 3D DIC, Haytham's monocular 3D vision strain gauge effectively overcomes the limitations of traditional methods, achieving full-field 3D deformation measurement of tires under compression.
Traditional measurement methods at high temperature often provide only local strain data, failing to reflect overall deformation behavior. Using monocular 3D optical measurement, Haytham's monocular 3D video extensometer measures strain over the entire titanium alloy specimen surface at 650℃, ensuring comprehensive, accurate results.
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.
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.
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.