Tag Archive for: aircraft

2-Axis Load Cells 101
Interface 2-Axis Load cells accurately measure forces or torques in two perpendicular directions simultaneously, all from a single, integrated device. The bi-axial sensors include multiple, isolated strain gage bridges within a single sensor body. While a single-axis sensor uses one bridge to measure force along one axis, such as tension or compression, a 2-axis sensor employs additional bridges to produce separate, independent output signals for the orthogonal axes. The primary technical advantage of a 2-axis multi-axis design is the ability to acquire comprehensive, richer data about force interaction from a single measurement point. Learn more in our 2-Axis Load Cell 101, part of Interface's ForceEDU series.

Boundless Opportunities in Payload Management Using Force Measurement
Interface force measurement products are staples for payload management, from early design through testing to launch. Payloads for aircraft, drones, rockets, and satellites are subject to extreme forces during launch, in-flight maneuvers, and landing. High-accuracy measurement tools, including load cells, torque transducers, DAQ systems, wireless sensors, and multi-axis sensors, are used for managing payloads.. Interface is a preferred supplier of test and measurement solutions for the aerospace industry.

Interface Measurement Solutions for Wireless Weighing Systems
Interface wireless load pins, load shackles, tension load links, and load cells are reliable measurement sensors required for accurate wireless weighing systems. Interface wireless solutions are crucial for weighing applications in aerospace, manufacturing, infrastructure, maritime, and other quality control environments.

Precision Under Pressure in Tensile Testing Applications
Interface load cells enable accurate tensile testing for material characterization, quality control, and R&D. Tensile testing applications using Interface force measurement devices include medical devices, 3D printing, aircraft, aerospace, automotive components, consumer products, fabrics, and more. Accurate measurement ensures product safety and performance.

Fatigue-Rated Load Cells 101
Interface Fatigue-Rated Load Cells are specialized force sensors engineered to accurately measure loads over an extended operational life exceeding 100 million fully reversed, full-capacity loading cycles, crucial for durability and long-term performance testing. Their design emphasizes reduced stress levels, optimized geometries, and robust construction to prevent fatigue failure under repetitive loading.

Types of Testing Applications Using Load Cells
Interface details types of tests using load cells and force measurement solutions by different industries, including structural, tension, compression, torque, stress, strain, material and fatigue. Learn about how Interface's products support testing applications through examples from industry use cases in aerospace, energy, manufacturing, infrastructure, automotive and more.

Force Measurement Expands Environmental Testing Capabilities
Interface supplies force measurement devices for environmental testing to confirm the reliability and longevity of products, components, and structures across diverse industries. It's where designs are subjected to the rigors of real-world conditions, ensuring they can withstand extreme temperatures, humidity, vibrations, and a host of other environmental stressors.

Interface Measurement Solutions for Industry Testing Labs
Interface provides load cells, torque transducers, and instrumentation to automotive, aerospace, infrastructure, and medical device industry testing labs. Selecting standard equipment for a force measurement testing lab involves more than choosing the right transducer. Consider the entire testing ecosystem, including evaluating the mechanical connections, application, cycle counts, calibration standards, and environment.

Overlapping Material Science and Force Measurement
Force measurement is critical in material science. Using Interface load cells, researchers and engineers can accurately measure tensile strength, compressive strength, fatigue life, and other key properties. Material science supports innovation across a vast spectrum, from the lightweight composites revolutionizing space exploration to the 4D bioprinting-compatible materials driving advancements in healthcare.