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Strain Measurement Systems

Veshay PCB Strain Gauges Measurement System PCB Strain testing allows objective analysis of the strain and strain rate levels that a SMT package is subjected to during PWB assembly, test and operation.The Veshay PCB Strain Measurement System is special design for printed wiring board strain testing application. The real-time data ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC
The Veshay Akemond TSK Series PCB Strain Measurement System is a high-precision diagnostic tool engineered to monitor mechanical stress on printed circuit boards (PCBs) during manufacturing, testing, and operation. Designed to prevent common structural failures like pad lifting, solder joint cracking, and trace damage, this system is ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC
The Veshay Akemond TSK-32-8C PCB Strain Measurement System is a specialized solution designed to accurately measure and analyze strain on printed circuit boards (PCBs) during various stages of manufacturing, testing, and operation. This system is tailored to detect mechanical stresses that can lead to failures such as solder joint ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC
Akemond TSK Series PCB Strain Measurement System Akemond Strain measurements is a designed for PCB board test and special tailor-made test system, the system provides many more stable hardware and powerful analysis software, and provides a user-friendly interface, to be able to significantly improve your test efficiency and product ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC
Akemond TSK Series PCB Strain Measurement System Akemond Strain measurements is a designed for PCB board test and special tailor-made test system, the system provides many more stable hardware and powerful analysis software, and provides a user-friendly interface, to be able to significantly improve your test efficiency and product ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC
Akemond TSK Series PCB Strain Measurement System Akemond Strain measurements is a designed for PCB board test and special tailor-made test system, the system provides many more stable hardware and powerful analysis software, and provides a user-friendly interface, to be able to significantly improve your test efficiency and product ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC
Akemond TSK Series PCB Strain Measurement System Akemond Strain measurements is a designed for PCB board test and special tailor-made test system, the system provides many more stable hardware and powerful analysis software, and provides a user-friendly interface, to be able to significantly improve your test efficiency and product ...

Specifications

Measurement Range: -55500 – 55500 uE
Accuracy: -0.3 – 0.3 %
Stability: 6 ppm/degC
Sampling Frequency: 10 KHz (per channel)
Operational Temperature Range: -40 – 70 degC

Strain Measurement Systems: Precision Monitoring for Structural Performance

Strain measurement systems are essential tools in the field of dimensional metrology, enabling accurate detection and analysis of material deformation under mechanical stress. These advanced systems are used across industries to ensure structural integrity, optimize product design, and maintain safety standards in demanding environments. Whether in aerospace, automotive, civil engineering, or manufacturing, strain measurement systems provide the data engineers need to make informed decisions.

What Are Strain Measurement Systems?

Strain measurement systems are designed to monitor changes in shape, length, or displacement of materials and structures when external forces are applied. The key metric they track is strain, which refers to the amount of deformation a material experiences under load. These systems typically use sensors like electrical resistance strain gauges, fiber optic strain sensors, or non-contact optical systems to detect and measure strain with high precision.

Types of Strain Measurement Systems

  • Electrical Resistance Strain Gauges: The most common type of sensor, these are bonded to a surface and measure strain by detecting changes in electrical resistance. They are widely used for structural testing, materials research, and fatigue analysis.

  • Fiber Optic Strain Sensors: These sensors use light signals within fiber optic cables to measure strain. They are highly sensitive and immune to electromagnetic interference, making them ideal for harsh environments and long-term structural health monitoring.

  • Digital Image Correlation (DIC) Systems: These optical systems use high-resolution cameras and software to track deformation across a material’s surface. DIC provides full-field strain maps and is particularly useful for testing complex or non-uniform components.

Key Applications of Strain Measurement Systems

  1. Aerospace Engineering: Monitor airframe components for fatigue, stress, and vibration to ensure safety and reliability.

  2. Automotive Design: Validate vehicle durability by measuring strain in critical parts during crash testing and performance evaluations.

  3. Civil Infrastructure: Detect stress in bridges, tunnels, and buildings to prevent structural failures and extend service life.

  4. Manufacturing & R&D: Use strain data during product development and quality control to enhance performance and reduce material waste.

  5. Medical Devices: Analyze biomechanical strain in implants, prosthetics, and wearables to improve comfort and effectiveness.

Advantages of Modern Strain Measurement Technology

Modern strain measurement systems offer high accuracy, real-time data capture, and seamless integration with data acquisition platforms. Wireless and IoT-enabled systems allow for remote monitoring and predictive maintenance, reducing downtime and improving operational efficiency. These innovations are driving adoption in sectors where safety, precision, and performance are paramount.

Choose the Right Strain Measurement System

When selecting a strain measurement system, consider factors like measurement range, sensitivity, environmental conditions, and compatibility with your data acquisition setup. FindLight offers a curated selection of high-performance strain measurement systems from leading manufacturers, ensuring you get reliable solutions tailored to your application.

Explore Strain Measurement Systems at FindLight

Browse FindLight’s wide range of strain measurement systems to find the right tools for your testing and monitoring needs. With solutions for every industry and application, our platform connects you with the latest technology in dimensional metrology.

Did You know?

Strain measurement systems can detect deformations as small as one-millionth of an inch! These incredibly sensitive tools play a critical role in preventing structural failures before they happen. By measuring how materials stretch, compress, or twist under stress, engineers gain deep insights into a structure’s performance—long before visible cracks appear. Modern systems don’t just stop at measurements—they now include wireless sensors, fiber optics, and real-time data analytics. From monitoring stress on bridges and aircraft to improving the reliability of medical implants and automotive components, strain measurement technology is everywhere. Even wearable devices and robotics are starting to rely on flexible strain sensors to track motion and improve functionality. Whether it’s enhancing safety in civil infrastructure or refining materials in aerospace R&D, strain measurement systems are quietly working behind the scenes to keep the modern world running smoothly.