Materials Mechanics
Monocular 3D Video Extensometer
Designed for material testing in high-temperature environments, it features plug-and-play operation with no calibration required. Using advanced optical and laser speckle technology, it accurately captures material deformation data even at extreme temperatures, making it suitable for tensile, compressive, and creep testing of superalloys, composites, and more. Its unique high-temperature optical path system and surface treatment technology ensure measurement accuracy and stability, significantly improving testing efficiency and reliability.
● Application Fields: Tensile, compressive, and bending tests of flat specimens in high- and low-temperature environments

Laser Focusing

0.5-Class Accuracy

Zero-Latency Communication

Strain Control Capability

Measurable Temperature Range -190℃—2300℃
In high-temperature material testing, especially tensile testing of superalloy steel, traditional contact extensometers often fail in harsh high-temperature environments. The Haytham monocular 2D video extensometer shows unique advantages, measuring strain without contact at 900°C and delivering stable, reliable tensile data.
In materials science, composites are widely used in aerospace and energy for their strength and heat resistance. Their behavior must be measured under extreme temperatures to ensure reliability in real service. Marker-free non-contact DIC captures full-field compression deformation at 2300°C for trustworthy verification.
Accurate data acquisition is key in high-temperature material testing, and at 1600°C traditional equipment faces serious challenges. In this test the Haytham 2D extensometer provided the customer with a reliable solution, measuring strain without contact and delivering stable, trustworthy data where conventional devices struggle.
As 3D printing spreads across aerospace and automotive manufacturing, material performance is a core design and production concern. A well-known manufacturer developing a 3D-printed alloy component for high-temperature service needed full-field data under heating to 350°C. Non-contact DIC delivered complete strain fields, supporting reliable performance verification.
In steel performance evaluation, high-temperature tensile testing verifies heat resistance and plasticity. For rebar with rough, reflective, complex surfaces, traditional contact extensometers often fail to work stably. Haytham's featureless recognition measures strain without surface preparation for stable high-temperature data.
The nail penetration test simulates internal short circuit scenarios in battery cells. Traditional approaches focus on a single physical quantity such as temperature or displacement and strain, making it hard to answer where the heat starts and how it spreads, or how mechanical deformation interacts with the temperature rise. Haytham brings full-field deformation measurement into the test to capture both together.
In 1500°C tensile testing of carbon/carbon (C/C) composites, the material endures strong radiation, high heat flux, and a complex atmosphere. Traditional contact extensometers and strain gauges fail or detach under such conditions. Non-contact DIC withstands the extreme environment for reliable full-field strain data.