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Enhancing Structural Testing with Multi-Axis Load Cells

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Multiple industries use structural tests for quality control, regulatory requirements, failure analysis, predictive maintenance, design and performance verification, and safety assurance.

Structural tests measure the tension, design proofing, and lifecycle fatigue validation. Load cells provide valuable measurement data in structural testing. These tests apply to assessing the structural components for rockets, aircraft, automobiles, EV batteries, heavy equipment, and infrastructure projects.

There are times when more data is valuable beyond a standard load cell. Multi-axis sensors are essential tools for structural testing, providing valuable insights into the behavior of structures under various loading conditions. These sensors measure forces in multiple directions, enabling engineers to identify potential weaknesses, assess structural integrity, and optimize designs.

Multi-axis sensors offer several technical advantages for structural testing compared to traditional single-axis load cells. Interface’s 2-axis, 3-axis, and 6-axis load cells are all excellent options for structural testing.

TIP:  Use the new Interface Multi-Axis Selection Guide to evaluate the different designs, capacities, and capabilities quickly.

Primary Benefits of Using Multi-Axis Load Cells for Structural Testing

  • Extensive data acquisition: The primary advantage of multi-axis sensors is they can simultaneously measure forces in multiple directions, thoroughly analyzing the force distribution on a structure.
  • Improvements to structural design: The data obtained from multi-axis sensors can be used to refine structural design models, leading to more robust, efficient, and safe structures.
  • Reduction in complexity: Multi-axis load cells can replace multiple single-axis load cells, simplifying test setups and reducing the required data channels. The benefits are saving time during test setup and data analysis.
  • High accuracy: Multi-axis load cells are designed to minimize crosstalk between axes, ensuring accurate measurements even when forces are applied in multiple directions, which is critical in structural test data.
  • Early detection of structural issues: Using multi-axis sensors can help to identify subtle changes in structural behavior that may indicate early signs of damage or deterioration, allowing for timely intervention.
  • Versatile measurement device: Multi-axis load cells are used in various structural testing applications, including complex force distributions and dynamic loading conditions, making them versatile tools for structural and civil engineers.
  • Compact form factor: Interface multi-axis load cells are dimensionally suited for testing structures with limited space constraints.

During the Inventive Multi-Axis and Instrumentation Webinar, our application engineers shared significant technical benefits of multi-axis sensors. Watch the full recorded technical seminar here.

  • Improved understanding of reaction loads at boundary conditions
  • Transmissive loads through DUT
  • Bending and side loads
  • Force vector and center of force
  • Boundary load condition verification
  • Expansion of existing test methods

Applications of Multi-Axis Sensors in Structural Testing

Structural health monitoring: These sensors are used to continuously monitor the condition of structures, identifying early signs of damage or deterioration.

Bridge testing: Multi-axis sensors measure bridges’ load distribution and stress levels during various loading scenarios, ensuring their structural integrity.

Aircraft testing: These sensors measure aircraft structures’ aerodynamic forces and vibration response, ensuring their safety and performance.

Civil engineering testing: Multi-axis sensors are employed in testing a wide range of civil engineering structures, including buildings, dams, and offshore platforms. Visit: Infrastructure Solutions

Multi-axis load cells are an ideal technical solution for structural testing because they can simultaneously measure forces in multiple directions, reduce complexity, and improve accuracy. These versatile sensors can be used in structural testing and ongoing structural monitoring.

ADDITIONAL RESOURCES

Multi-Axis Sensor Application Notes

Interface Solutions for Structural Testing

Structural Testing Overview

Modernizing Infrastructure with Interface Sensor Technologies

Interface and Infrastructure Markets Form a Perfect Partnership

Electric Vehicle Structural Battery Testing

Outlining Force Solutions for Structural Outrigging

Performance Structural Loading

Rocket Structure Testing

 

Fatigue Testing with Interface Load Cells

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Engineers rely on fatigue testing to ensure the safety and reliability of their product designs and structures. By understanding how materials behave under repeated loading, engineers can design components resistant to fatigue failure.

Fatigue testing requires accurate and reliable force measurement. Interface uses ‘fatigue-rated’ as an exact specification that defines a special class of load cell design and construction. Interface fatigue-rated load cells are designed to withstand the rigors of repeated loading, which makes them ideal for even the most demanding high cycle count fatigue testing applications.

In a typical fatigue testing setup, Interface fatigue-rated load cells are attached to the test specimen or the test machine, and the cyclic loading is applied according to the test protocol. The load cells continuously record the applied forces or stresses, allowing engineers and researchers to monitor how the material responds to repeated loading.

By analyzing the data from Interface load cells, researchers and material engineers can determine the material’s endurance limit, fatigue life, and stress-strain behavior. This information is invaluable for optimizing material selection, design, and manufacturing processes to enhance product performance and reliability while identifying fatigue and potential failure risks.

The use of fatigue-rated load cells and data logging instrumentation is necessary for most test and measurement applications, particularly when materials, parts, or assemblies are tested for destruction. This is true because an accurate record of the forces at every moment of the tests is the only way an engineer can analyze the stresses that occurred in the moments just before the ultimate failure. Read more about fatigue testing in our Interface’s Technical Library.

Interface Fatigue-Rated Load Cells

1000 Fatigue-Rated LowProfile® Load Cell

1000 High Capacity Fatigue-Rated LowProfile® Load Cell

1500 Low Capacity LowProfile® Load Cell

1208 Flange Standard Precision LowProfile® Load Cell

Profile of a Fatigue-Rated Load Cell

  • Design stress levels in the flexures are about one-half as high as in a standard LowProfile load cell.
  • Internal high-stress points, such as sharp corners and edges, are specially polished to avoid crack propagation.
  • Extraneous load sensitivity is specified and adjusted to a lower level than in a standard LowProfile load cell.
  • All Interface fatigue-rated load cells have a specified service life of 100 million fully reversed, full-capacity loading cycles.

No one can accurately predict exactly when the failure will occur, nor which part of an assembly will be the weakest link that eventually will fail. This is why high cycle count testing is the best way to measure fatigue life. To read more about fatigue testing and fatigue theory, consult Interface’s Load Cell Field Guide.

Fatigue Testing Applications

Interface fatigue-rated load cells are used in various industries, including aerospace, automotive, civil engineering, and manufacturing. They are used to test various products, from aircraft wings and landing gear to furniture and industrial machinery.

How Interface fatigue-rated load cells are used in fatigue testing:

  • Aerospace: Interface fatigue-rated load cells test the durability of aircraft wings, landing gear, and other aerospace components. This helps to ensure that aircraft can withstand the rigors of repeated takeoffs, landings, and flights. These load cells test the materials used for structures and even rockets.
  • Automotive: Interface fatigue-rated load cells test the fatigue life of engine components, chassis, and suspension systems. This helps to ensure that vehicles are safe and reliable and that they can withstand the stresses of everyday driving.
  • Civil engineering: Interface fatigue-rated load cells test the fatigue resistance of bridges, buildings, and critical infrastructure. This helps to ensure that these structures can withstand the loads they are designed to carry and are safe for the public.
  • Manufacturing: Interface fatigue-rated load cells test the fatigue life of industrial machinery, tools, and consumer products. This helps to ensure that these products are reliable and can withstand the demands of everyday use.

Watch how Interface load cells are used in this bike frame testing application.

Interface has specialized in fatigue-rated load cells and their applications since our founding in 1968. Our LowProfile® fatigue-rated load cells provide up to 100 million duty cycles, and the gaged sensors in every load cell are individually inspected, tested, and certified to meet our rigid performance standards.

It is imperative to choose the right load cell for your fatigue testing application. Load cells come in various sizes and capacities, so it is vital to choose one that is right for your fatigue testing application. Ensure you know the maximum load that will be applied to the load cell, the type of loading, the accuracy requirement, and the environmental conditions for testing. Consult with Interface application engineers to find the suitable load cell for your testing requirements.

ADDITIONAL APPLICATIONS AND RESOURCES

CPG Bike Handlebar Fatigue Testing

Interface Specializes in Fatigue-Rated Load Cells

Prosthetics Load and Fatigue Testing App Note

Furniture Fatigue Cycle Testing App Note

Aircraft Wing Fatigue App Note

 

Force Measurement Tips Related to Data Acquisition Systems

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A data acquisition (DAQ) system consists of hardware and software components designed to collect, process, and analyze data from various sources and convert it into digital format for further analysis and storage. Based on the growing requirements to gather more data faster, Interface continues to add to our line of data acquisition systems to use with our load cells, torque transducers, and multi-axis sensors. These systems are designed for comprehensive force and torque measurement data collection and analysis.

Is more data, with easy integration and high accuracy, your objective? Working with our team of application engineers, we can assist you in pairing the best data acquisition system with your specific transducers. Considering the options, our team of experts offers these five essential bits of advice.

Data Acquisition Systems Tips for Test & Measurement

Select the Right Data Acquisition System

Choosing a data acquisition system compatible with your specific force measurement devices and application requirements is crucial. Consider factors such as sensor type, measurement range, accuracy, resolution, sampling rate (considering your over-sampling requirements), and connectivity options. In addition, the size and form factors can be critical to an application.

Proper Sensor Installation and Calibration

Proper sensor installation and calibration are critical for accurate force measurements. Follow the guidelines for sensor installation, including correct mounting, alignment, and wiring. Ensure that the load cell is calibrated according to established procedures and standards and that the calibration is regularly verified to maintain measurement accuracy. Proper sensor installation and calibration help eliminate potential sources of measurement errors.

Signal Conditioning and Filtering

Signal conditioning and filtering techniques are essential for optimizing the quality of the acquired force data. Signal conditioning involves amplification, offsets (zeroing), filtering, and linearization of the sensor output signal. Filtering techniques, such as anti-aliasing filters, IIR, or FIR, can help reduce noise and unwanted signals, ensuring accurate and reliable force measurements.

Data Validation and Analysis

Implement data validation techniques, such as range checking, outlier detection, and data integrity checks, to identify and correct potential data errors or anomalies. Analyze the acquired data using appropriate statistical and data analysis techniques to extract meaningful insights and make informed decisions based on the force measurement data. Be sure to select a force measurement device that is highly accurate and of superior quality.

System Maintenance and Calibration

Regular system maintenance, including sensor calibration and system validation, is crucial for reliable and accurate force measurements. Follow Interface’s recommendations for system maintenance, including sensor cleaning, inspection, and calibration intervals. Regular calibration and validation of the data acquisition system and force measurement devices help ensure the system remains accurate and reliable.

For additional information about Interface data acquisition solutions, watch the Unlocking the Power of DAQ webinar.

Popular Interface Data Acquisition Instruments

BX8 Data Acquisition Series

BX8-AS BlueDAQ Series Data Acquisition System with Industrial Enclosure

BX8-HD15 BlueDAQ Series Data Acquisition System for Discreet Sensors with Lab Enclosure

BX8-HD44 BlueDAQ Series Data Acquisition System for Multi-Axis Sensors with Lab Enclosure

Features & Benefits

  • 8-Channel synchronized sampling + TWO encoder/pulse channels
  • Strain gage, mV/V, ±10VDC, and PT1000 temperature inputs
  • Internal calculation of axis load values for 6-axis sensors
  • Active scaling of analog outputs according to internal calculations
  • ±5V, ±10V, 4-20mA, and 0-20 mA outputs
  • 48K samples/sec/channel, 24-bit internal resolution
  • USB connection to PC, Includes graphing and logging software
  • Excitation sense
  • Strain gage Full, 1/2, and 1/4 bridge, including bridge completion
  • TEDS compatible, ZERO button for 8-channel simultaneous tare, 16 digital I/O
  • Galvanic isolation: Analog input, analog output, digital I/O, USB
  • EtherCAT and CANbus/CANopen options
  • Enclosure Options

BSC4 Digital DAQ Model

BSC4D Multi-Channel Digital PC Interface and Data Acquisition Instrument

Features & Benefits

  • USB outputs
  • Four independent channels
  • For use with model 3AXX series 3-axis load cells
  • It can be used with up to any four standard load cells (with mV/V output)
  • mV/V, +/-5V, +/-10V, PT1000
  • Strain gage quarter/half and full bridges
  • 120, 350 & 1000 Ohm bridge completion
  • Limit frequency 450 Hz
  • Eight digital inputs/outputs

Use Cases for Data Acquisition Systems in Test & Measurement

Robotic Surgery Force Feedback using DAQ System

A biomechanical medical company wants to test its robotic arm’s force, torque, and tactile feedback for invasive surgery. The robotic arm mirrors the surgeon’s movements during surgery, and all haptic force feedback must be measured to ensure safety during invasive surgery. Several of Interface’s force and torque measurement products have been used on this robotic arm, including the ConvexBT Load Button Load Cell, SMTM Micro S-Type Load Cell, and the MRTP Miniature Overload Protected Flange Style Reaction Torque Transducer. Force results are collected when connected to the BX8 8-Channel Data Acquisition and Amplifier and viewed when attached to the laptop.

Material Tensile Testing using Data Acquisition Instrumentation

A customer wants to conduct a tensile force test on different samples and materials until failure. Materials include plastic, steel, or woven fabric. They want to measure tensile strength, yield strength, and yield stress. Interface’s 1200 Standard Precision LowProfile™ Load Cell is installed into the customer’s test frame. The tensile test is conducted, and force results captured by the load cell and extensometer are synced. These results can be displayed on a PC with supplied software.

Planetary Sample Collecting

As space exploration continues to grow and evolve, more robotic systems are created to collect samples of objects and materials on planetary surfaces. Robotic arms with sampling tools must be tested for scooping, drilling, and collecting samples. Interface’s Model 6A40 6-Axis Load Cell can be installed between the flange and the sample collecting tool. When connected to the BX8-HD44 Data Acquisition, the customer can receive force and torque measurements when connected to their control system using BlueDAQ software. Interface’s 6A40-6 Axis Load Cell could measure all forces and torques (Fx, Fʏ, Fz, Mx, Mʏ, Mz.) The BXB-HD44 Data Acquisition could log, display, and graph measurements while sending scaled analog output signals for these axes to the customer’s robot control system.

Learn more about your DAQ system options using Interface’s Data AQ Packs Guide.

Force Measurement is Fundamental in Material Testing

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Material tests are run to determine the quality, durability, and resistance of materials for parts and products. Selecting the right material is critical to performance of a product, system, or part, especially as it relates to the environmental factors. It is also core for adhering to regulatory standards and compliance requirements.

Whether it is construction and concrete materials, metals, fabrics, biomaterial, plastics, packaging, or some other matter, material testing is fundamental throughout the entire development lifecycle.

Among the various ways to test materials, force measurement is one of the most important. Common uses of force measurement in material tests include applications to measure hardness, torsion, strength, compression, bending, shear, impact, creep, fatigue, and nondestructive capabilities.

The use of load cells provides an adaptable tool that can be utilized for various types of material tests. Using force measurement sensors help to detect changes in load, which is used to determine the flexibility, strength, or weakness of properties in materials. This is critical for research and quality control.

For example, in metal material testing load cells are frequently used for characterizing and assessing the quality of metallic components and structures. Material test engineers use load cells to accurately measure the tensile strength, compression resistance, and yield properties of metal samples. By subjecting metals to controlled loads and monitoring the metals deformation during tests, Interface load cells provide critical data that informs engineering decisions and quality control processes. Material tests confirm that the metals chosen for products like aircraft structures, automotive components, and sports equipment, meet stringent performance standards. The measurement sensors are also vital for determining the reliability, longevity and safety of metal materials used for any product or part. See other examples of testing in our new Interface T&M Material Testing Overview.

It is the responsibility of a material testing engineer to determine the resilience, safety, and value of materials through mechanical testing, of which material testing is one of the five categories. Ultimately, product designers and original equipment manufacturers (OEMs) rely upon material testing data to ensure their products can withstand the anticipated levels of force during use. They also need to know if the material will stretch or elongate, as well as pinpoint its exact breaking point.

Interface’s robust line of load cells, multi-axis sensors, and data acquisition systems are used for material testing. It is common to have our 1200 LowProfile load cells installed into material testing machines at test labs and onsite. We also supply a variety of miniature load cells and load pins for material testing, depending on the type of equipment and environment used for tests.

High accuracy load cells are essential in material testing due to their precision, versatility, and ability to provide real-time data, which helps researchers and engineers gain a better understanding of a material’s mechanical properties and behavior under different conditions.

If force must be measured, Interface has a solution. This applies to testing materials used for infrastructure, medical devices, aircraft, rockets, vehicles, robotics and consumer goods. As new materials and composites are introduced in revolutionary ways for use in construction, designing light weight products using polymers, and 3D printed components, it is imperative that material tests validate the use case based on high accuracy measurements.

Our force measurement products are being used to gather data from testing materials in applications used for machines, equipment, structures, packaging and more. Here are a few examples of material testing applications.

Inflatable Space Habitat

Inflatable habitats are the newest innovation in the space industry, creating a new interplanetary dwelling for humans to live and work past the Earth’s atmosphere. An innovative space industry company wanted to test the overall design and material of their inflatable habitats by conducting a burst test. Multiple clevises and LP Stainless Steel Load Pins were attached to the in the webbing material that create the inflatable habitat. When pressure was increased within the inflatable habitat, the load pins captured how much force the heavy duty material will hold at specific pressures until it explodes. Interface’s LP Stainless Steel Load Pins successfully measured the amount of force the inflatable habitat could withstand during the burst test.

Material Tensile Testing Load Frame

A customer wanted to conduct a tensile force test on different samples and materials until failure. Materials include plastic, steel, or woven fabric. They wanted to measure tensile strength, yield strength, and yield stress. Interface’s 1200 Standard Precision LowProfile™ Load Cell was installed into the customer’s test frame. The tensile test was conducted, and force results were captured by the load cell and extensometer were synced through the SI-USB4 4 Channel USB Interface Module. These results were then displayed on the customer’s PC with supplied software. With Interface’s force products, the customer was able to determine the tensile strength, yield strength, and yield stress of a variety of different materials.

Material testing is often the first step in any new product development process. With Interface force measurement solutions, our customers can expect industry-leading accuracy, quality and reliability in testing the materials that will go into their next project. Contact us for products used for various test types.

Interface Solutions for Material Testing Engineers

Tensile Testing for 3D Materials

Bending Beam Load Cell Basics

The Aviation Industry Soars Using Interface Solutions

Interface Solutions for Structural Testing

Interface Solutions Aid Pharmaceutical Industry

Engineered Solutions for Lifting Webinar

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Interface’s technical webinar Engineered Solutions for Lifting details measurement devices used in lifting equipment, machines, and vehicles to improve operations and safety. Interface load cells and instrumentation are used to operate cranes, hoist heavy objects, and measure forces in infrastructure projects. Interface experts answer how load cells are used in safety monitoring for lifting equipment. Learn about Interface sensor products suited for integration into existing equipment and test and measurement projects.

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Demystifying Specifications Webinar

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Interface’s technical force measurement webinar Demystifying Specifications details descriptions, terms, values and parameters found in product datasheets for load cells, torque transducers, instrumentation and specialty products. Learn from our experts what specifications need critical review, recommendations based on product categories, and the insider point of view on what is most important in terms of specifications for different use cases and tests.

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Understanding GUM and Measurement Uncertainty

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Understanding GUM and adherence to good test and measurement practices are essential to minimize uncertainties and ensure reliable measurement results for every application.

In the context of test and measurement, GUM stands for Guide to the Expression of Uncertainty in Measurement. The GUM is a widely recognized and internationally accepted document published by the Joint Committee for Guides in Metrology (JCGM), which provides guidelines for evaluating and expressing uncertainties in measurement results.

GUM establishes general rules for evaluating and expressing uncertainty in measurement that are intended to be applicable to a broad spectrum of measurements. A critical portion of any measurement process, the GUM outlines a thorough framework for uncertainty estimation. GUM defines terms and concepts related to uncertainty, describes methods for uncertainty calculation, and offers guidance for reporting and the documentation of uncertainties in measurement results.

The GUM provides a systematic approach to assess and quantify uncertainties by source, including equipment constraints, environmental conditions, calibration procedures, and human factors. The standards set by GUM emphasizes the need for considering and quantifying all substantial uncertainty components to ensure reliable and traceable measurement results.

By following the principles and guidelines outlined in the GUM, test and measurement professionals, metrologists, and scientists ensure standardized approach to uncertainty evaluation and reporting, facilitating comparability and consistency of measurement results across different laboratories and industries.

The uncertainty requirement varies for different use cases and industry applications. For example, for aerospace, defense, and medical devices there are strict uncertainty requirements compared to commercial scales or measurement tests that do not need precision accuracy.

When estimating uncertainty in load cell calibration, it is important to refer to the Guide to the Expression of Uncertainty in Measurement (GUM). The GUM provides a comprehensive framework with general rules for evaluating and expressing uncertainty in measurement. It serves as a guide applicable to a wide range of measurements, providing valuable guidance on uncertainty assessment in load cell calibration and other measurement processes.

In test labs that utilize load cells and torque transducers, the principles and guidelines GUM should be consistently applied to accurately evaluate and express uncertainties associated with the measurements obtained from these devices.

The application of GUM in test labs using load cells and torque transducers requires a thorough understanding of the measurement process, relevant standards, and calibration procedures. Read Understanding Uncertainty in Load Cell Calibration for more information.

Different considerations to measure uncertainty

  • Determine what parameter is to be measured and the units of measure.
  • Identify the components of the calibration process and the accompanying sources of error.
  • Write an expression for the uncertainty of each source of error.
  • Determine the probability distribution for each source of error.
  • Calculate a standard uncertainty for each source of error for the range or value of interest.
  • Construct an uncertainty budget that lists all the components and their standard uncertainty calculations
  • Combine the standard uncertainty calculations and apply a coverage factor to obtain the final expanded uncertainty.

GUM is used to identify and characterize uncertainty sources that can affect the measurements obtained from load cells and torque transducers. These sources may include calibration uncertainties, environmental conditions, electrical noise, stability of the test setup, and other relevant factors. Each of these sources should be quantified and considered in the uncertainty analysis.

Quantitative estimates of uncertainty component contributions to the overall uncertainty need to be determined. This can involve conducting experiments, performing calibration procedures, analyzing historical data, or utilizing manufacturer specifications to obtain uncertainty values for each component.

Once sources and estimates are complete, next step is to combine the individual uncertainty components using appropriate mathematical methods prescribed by the GUM. These methods include root-sum-of-squares (RSS), statistical analysis, and other relevant techniques. The aim is to obtain an overall estimate of uncertainty that accounts for the combined effects of all relevant sources.

The GUM provides guidelines on expressing uncertainties in measurement results. It emphasizes the use of confidence intervals, expanded uncertainty, and coverage factors. The uncertainty should be reported alongside the measurement values, indicating the level of confidence associated with the measurement. This allows the users of the measurement data to understand the reliability and accuracy of the obtained results.

For additional information about GUM, errors and setting an uncertainty budget, watch our webinar Accurate Report on Calibration. The video is set to start on the topic of Measurement Uncertainty.

It is essential to consider the specific uncertainty requirement of the application to ensure that the chosen force measurement device is appropriately calibrated for the project. This resource is a helpful recap: Specifying Accuracy Requirements When Selecting Load Cells.

In addition, understanding GUM, reducing uncertainty with regular calibration of testing devices and proper maintenance of the equipment go together with GUM.

ADDITIONAL RESOURCES

Gold Standard® Calibration System

Accurate Report on Calibration

Technical Information

Load Cell Test Protocols and Calibrations

Regular Calibration Service Maintains Load Cell Accuracy

 

Unlocking the Power of DAQ Webinar Recap

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Interface hosted a technical seminar on the topic of data acquisition systems. With the demands for more data and faster processing with requirements to connect multiple devices in testing environments, there is an increasing need for high accuracy DAQ systems. Keith Skidmore and Dave Reardon detail the basics of DAQ, trends, products, software options and answer to questions in the webinar, Unlocking the Power of DAQ.

To start, a data acquisition (DAQ) system consists of hardware and software components designed to collect, process, and analyze data from various sources and convert it into digital format for further analysis and storage.

Components of DAQ Systems

  • Input:  Sensors (Ex: Force, Torque), Digital Signals (Ex: DIO, Counters), Timing Signals (Ex: IRIG, GPS) and Serial Streams (Ex: RS-232, RS-422)
  • Signal Conditioning Circuitry: Excitation, Amplifier, Voltage Offsets, and Filters
  • Analog-to-Digital Converters (ADC)
  • Digital-to-Analog Converters (DAC)
  • Hardware and Software for processing, analyzing, display and recording
  • Output Signal: prior to ADC, after DAC, or even after processing

Analog data acquisition systems acquire and process analog signals. Analog signals can include sensors that measure load, force, torque, strain, temperature, pressure, voltage, current, and many other physical or electrical qualities.  Digital data acquisition systems acquire and process digital signals. Digital signals can include on and off states, counters, serial streams, text data, video, GPS signals, and other advanced options.

 Key Considerations for DAQ Systems

  • Features
    • Supported range of inputs mV/V, VDC, mA, partial bridge, encoder, pulse, frequency
    • Included software and related functionality
  • Form factor
    • Bench top, rack mount, portable, ruggedized and others
  • Sample rate
  • Connectivity
  • Power supply
  • Channel count and cost per channel

Interface DAQ Products

Interface offers a range of solutions for DAQ systems. The top products for DAQ include:

During the webinar, Keith and Dave detail a series of product groups for the Interface Data AQ Packs.

Data AQ Pack Brochure

Watch the webinar and learn more about product options, software, applications and best practice tips.

Testing Labs Choose Interface High Accuracy Products

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Specialists focused on testing applications work in a variety of testing lab environments. In each lab, technicians rely on the tools to collect and report on data that is used to make products safer, guarantee performance, ensure quality, and to meet the strict industry standards and requirements. Accuracy in testing data is dependent on the precision measurement devices and instrumentation used to capture the results.

We supply lab engineers with high-accuracy sensor technologies used to complete rigid test requirements. Interface is the top provider of test and measurement products used for structural and material testing, static and fatigue testing, torsion effects, tension tests, calibration testing, and environmental testing. Read more in Types of Force Measurement Tests 101.

Our standard high precision load cells, torque transducers, multi-axis sensors, and instrumentation are used on every continent for T&M. Based on our quality and performance, we are the chosen supplier to calibration and testing labs. We see our products used today for continuous improvement programs, advancements in smart manufacturing and new product designs.

If it must be measured, Interface has a solution. Our products are designed for small and large testing facilities, including calibration-grade load cells, load frames and test stands, along with data acquisition systems. The wide variety of our force measurement solutions designed for testing labs means we play a role in every industry that is making a physical product and the test labs that validates the products performance.

Testing Labs and Types of Testing Using Interface Solutions

General Automotive Test Labs:

  • Component and Sub-Component Level Testing
  • Suspension Testing
  • EV Battery Testing

Automotive Driveline Testing:

  • Engine Performance and Durability Tests
  • Motor Efficiency Testing
  • Power Analyzation (Electric)

Aerospace Testing:

  • Full Scale Structural Static Testing
  • Component Fatigue Test
  • High Precision Thrust Testing
  • Simulators
  • Wind Tunnel Testing

Geotechnical and Civil Testing

  • Concrete or Asphalt Core Testing
  • Soils Testing

General Structural and Component Testing

  • General Push and Pull
  • Design Proofing
  • Life Cycle Fatigue Validation

Medical Device Testing:

  • Prototyping
  • PPAP Validation and FDA Certification
  • Device Lifecycle Testing

Consumer Product Testing Labs:

  • Design Validation
  • Material Testing
  • Fatigue and Failure Tests

Interface recently highlighted testing lab applications in our Test Lab Essentials Webinar. Here you can see the lab use cases and products as they are reviewed by our applications experts.

Each of these testing types requires different force testing equipment, and our experts work directly with testing lab professionals to determine the products or systems they need for single and ongoing test requirements.

As testing technologies becomes increasingly complex, off-the-shelf products may not meet the needs of every Interface customer. We lend engineers expertise in test and measurement to support unique and custom requirements to get the right sensor, instrument, and system in place.

Since our first load cells were designed five decades ago, we have built millions upon millions of load cells and torque transducers used in testing labs around the world. Our products are built to withstand the rigor and requirements needed for high quality and reliable data collection in test and measurement. Our test customers depend on us for proving accuracy, consistency, and reliability in performance.

ADDITIONAL RESOURCES

Interface and Testing Lab Applications

Testing Lab Essentials Webinar

Engine Dynamometer App Note

Consumer Product Testing Case Study

Interface Solutions for Safety and Regulation Testing and Monitoring

Metrologists and Calibration Technicians 101

Motor Test Stand

GS-SYS04 Gold Standard® Portable E4 Machine Calibration System

Electric Vehicle Structural Battery Testing

Furniture Fatigue Cycle Testing App Note

Regular Calibration Service Maintains Load Cell Accuracy