Case Studies

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For more than 80 years, Instron has supplied over 90,000 testing systems to leading manufacturers, universities, and research institutions around the world. Our customers range from innovative start‑ups to 96% of the companies on Fortune’s 100 list, and Instron systems are referenced in more than 18,000 global patents. While many customer partnerships remain confidential, the case studies below highlight organizations that have chosen to share their experience working with Instron.

At Covalent, an independent test laboratory, expanded testing capabilities support a growing portfolio of advanced materials. By implementing the AVE3 Advanced Video Extensometer, the lab improved strain measurement accuracy while increasing flexibility and efficiency across a wider range of mechanical tests.

At Boston University’s College of Engineering, researchers use an autonomous testing system that integrates automation and machine learning to accelerate the development of optimized energy‑absorbing shapes, enabling faster experimentation and data‑driven design decisions.

Kiguchi Technics, a contract test lab in Japan, continues to invest in advanced testing technologies as part of its Digitization Initiative. The lab has implemented Bluehill® Central to enable remote monitoring and centralized management of all Instron universal testing systems.

At Kent State University’s Experimental Archaeology Lab, Dr. Metin Eren and Dr. Michelle Bebber use a universal testing system to study ancient technologies, helping uncover insights into the material properties and behaviors that shaped hominin technological history.

Vamp Tech develops tailor‑made flame‑retardant materials and technical compounds to meet specific customer requirements. By supporting a wide range of applications, the company has become a trusted materials partner across multiple industries.

As a leader in medical device development and manufacturing, Primo Medical Group has earned more than 130 patents and produced thousands of products. Adaptable, secure testing processes are essential to their mission of delivering the highest quality devices.

LOLIWARE is developing bio‑renewable, biodegradable plastics derived from seaweed to help reduce single‑use plastic waste. As a fast‑moving start‑up, they brought testing in‑house with a 3400 Series Universal Testing System to support rapid development.

Siemens Digital Industries integrates machine learning into Simcenter™ 3D Specialist Durability software to predict fatigue behavior in 3D‑printed components. Using test data from ElectroPuls users at KU Leuven, the approach enables localized SN curve predictions based on build orientation and surface roughness.

Realtest GmbH, based in Blaubeuren, Germany, is an independent provider of advanced testing and measurement services. The company performs experimental fatigue life verification on components, assemblies, and structures to meet specific customer and application requirements.

Facing growing customer demand and evolving global regulatory requirements, Samyang Biopharm sought a more automated testing approach. By adopting automation, the lab reduced external variability and implemented a solution better aligned with its efficiency and compliance needs.

With the opening of a new development center in Shanghai, ZF has expanded its engineering capabilities to better address the needs of the Chinese and broader Asian markets. A key feature of the facility is a Hydropuls® axle test rig, supporting advanced component development and validation.

Mechanical testing of tissue microstructure is an increasingly important area of research, particularly in oncology. By investigating the mechanical properties of the tumor microenvironment, researchers are working to build biomechanical models that help improve understanding of tumor growth.

INNOPROOF, a German start‑up, specializes in demanding breast implant tests that require precise load control on highly compliant specimens. Using ElectroPuls® systems, the company addresses these challenges with the controller performance and actuator stroke needed for reliable dynamic testing.

As demand grows to understand long‑term mechanical behavior under variable frequency and amplitude, traditional fatigue testing methods face technical limitations. New testing solutions are emerging to address challenges such as limited frequency ranges, high maintenance, and control of ultra‑thin materials.

In 2016, TÜV SÜD Czech opened its Dynamic Component Testing (DYCOT) development laboratory in Mlada Boleslav. At the core of the facility is an Instron‑supplied acceleration sled, enabling realistic crash simulation to address current and future automotive testing challenges.

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