Tag Archive for: IQ Blog

What is the Technical Difference Between DUT and UUT?
Interface Tech Talk reviews the subtle differences when referencing a device under test (DUT) versus a unit under test (UUT). The distinction between DUT and UUT ultimately clarifies the test context, whether it is an isolated component under development or a finished unit undergoing final validation.

Engineering the Human Touch by Measuring Haptics
Using high-accuracy load cells enables designers to measure these haptic interactions during prototyping, ensuring the final product mimics the weight, snap, and texture of the real world. Interface provides measurement sensors and high-speed instrumentation needed to capture these micro-interactions and turn them into usable haptic data.

High-Stakes Oversights That Can Derail Sensor ROI
Choosing the right measurement system means managing hundreds of variables for industrial projects. A force measurement sensor is a sophisticated instrument that is only as effective as the system it operates within. Learn what can derail your sensor ROI and measurement success. Use Interface Sensor Selection and Product Guides to find the right solution based on your requirements. Discuss your project requirements with our experienced representatives and application engineers.

Engineering Force Intelligence in Heavy Machinery
Interface load cells and torque transducers provide force intelligence to modernize heavy machinery and enable autonomous control, predictive maintenance, and high-fidelity testing for equipment OEMs. Heavy machinery for construction, mining, and agricultural need force intelligence. Interface’s sensors enable the transformation of standard mechanical joints into smart components that provide the data-driven insights necessary for modern high-production operations.

Interface Five-Phase Framework for Sensor Selection
Sensor selection with Interface’s 5-phase framework is a checklist for optimizing your measurement system. The Sensor Selection Guide takes you through a series of important considerations when selecting the right devices for your project requirements. Go through the phases of characterization, mechanical fit, interconnect, instrumentation, and calibration. Learn how to optimize load cells, torque transducers, and multi-axis sensors for accuracy and reliability in this sensor-first approach.

The In-Line Advantage of S-Type Load Cells
Interface S-Type load cells are the preferred choice for in-line force measurement. The miniaturized high-accuracy load cell is easy to integrate due to the compact footprint of the sensor design. Learn the technical details of it's patented unitary construction, flexure zones, and key specifications like static error band and natural frequency ideal for machines, OEMs, automotive, aerospace, medical, and robotic applications.

High-Capacity Column Load Cell Technology
Interface high-capacity column load cells have a canister design and are used for industrial, aerospace, infrastructure, and ruggedized testing environments. To address specific high-capacity requirements, Interface provides specialized column architectures ranging from calibration standards to redundant-bridge industrial models. Capacities range from 100,000 to 1,000,000 pounds of force. It is the choice for the primary choice for extreme-scale engineering. The technical appeal of the canister design lies in its construction.

Elasticity 101
Interface's Elasticity 101 details the importance of Hooke's Law of Physics. In a load cell, we want a material with a very predictable stiffness. If the material permanently deforms or creeps, the deformation value won't return to zero, and your measurements will be inaccurate. A load cell is essentially a mechanical transducer that converts mechanical force into elastic potential energy, which we then capture as data. Understanding how your sensor bends is the first step toward mastering precision force measurement. Learn more in Interface's ForceEDU 101 Series.

Autonomous Navigation in High-Risk Environments Requires Accuracy in Sensing
Interface sensor technologies, including multi-axis, torque, and load cells, enable autonomous platforms to navigate subsea, industrial, and aerospace environments with precision. High-risk environments require sensors designed for hazardous, submersible, and extreme temperature conditions to ensure autonomous platforms perform reliably using accurate measurements.