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Interface Powers Smart Transportation Solutions

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Smart transportation refers to the integration of advanced technologies and intelligent systems in the transportation sector, including infrastructure and vehicles, which improve efficiency, safety, and sustainability.

The transportation industry is getting smarter with advancements in autonomous driving and electric vehicles, unmanned aerial vehicles, and electric airborne vehicles, high-speed trains and light rails, and transporation ways. Behind these innovations are critical test and monitoring solutions helping engineers ensure absolute safety and quality during development and in use for real-time monitoring.

Interface transducers are used to measure force, torque, or weight for both testing and integration into smart transportation systems. Our load cells, torque transducers, scales, load pins, tension links, and multi-axis sensors provide vital measurement data for design, development, test, and performance monitoring in various smart transportation applications.

A few examples of smart transportation inventions and use cases that utilize Interface advanced sensor technologies include:

  • Smart Cargo Monitoring: Load cells are installed in trucks, trailers, or shipping containers to monitor the weight and distribution of cargo. These load cells provide real-time data on the load’s weight, ensuring compliance with weight limits and preventing overloading, which can lead to safety hazards and increased fuel consumption.
  • Structural Testing of Vehicles: Load cells and torque transducers are used to measure forces and loads applied to vehicle structures during physical testing. This includes crash tests, structural integrity evaluations, and load capacity assessments. The data obtained helps engineers analyze the structural performance and safety characteristics of vehicles, enabling improvements in design and manufacturing processes for smart transport.
  • Infrastructure Load Data Acquisition: Load cells can be employed in roads, bridges and other transport infrastructure as part of the load data acquisition systems. These systems measure the dynamic forces and loads experienced by vehicles. By attaching load cells to strategic points on the vehicle, such as suspension components or the chassis, engineers can capture data related to acceleration, braking, cornering forces, and road-induced vibrations. This information aids in vehicle development, durability testing, and optimization of suspension and chassis designs. They also help design durable civil engineering projects and infrastructure.
  • Intelligent Weighing Systems: Load cells can be incorporated into weighing systems at weigh stations or toll booths. By measuring the weight of vehicles passing through, these systems can accurately determine toll fees, enforce weight restrictions, and gather data for traffic management and planning purposes.
  • Smart Suspension Systems: Load cells are integrated into suspension systems of vehicles, such as trucks and buses, to monitor load distribution and adjust suspension settings accordingly. This helps optimize vehicle performance, enhance stability, and improve ride comfort.
  • Load Sensing Axles: Load cells can be installed in axles to measure the weight carried by individual wheels or sets of wheels. This information is crucial for load balancing, tire pressure monitoring, and detecting potential axle overload situations.

Since the beginning of “Smart Mobility,” Interface has been supplying force sensing solutions used for electric or self-driving vehicles. Specifically in automotive, Interface has developed and supplied precision force and torque test and measurement systems that meet the demands for superior testing requirements of all components. The automotive market is subjected to extremely strict regulations. Therefore, test and measurement are critical for safety, reliability, durability, and overall smart vehicle performance.

In the context of smart rail transport and railways, force measurement is crucial in the testing and evaluation of rail vehicles, including locomotives, passenger trains, and freight wagons. Load cells and force sensors are utilized in numerous ways. Load cells are used in braking systems to measure the forces exerted during braking maneuvers. This allows design engineers to assess the effectiveness of automated braking system and ensure compliance with safety standards. The same types of sensors can be used to measure the vertical, lateral, and longitudinal forces acting on the bogies (wheelsets) of rail vehicles enable smart operating conditional adjustments.

Smart Transportation Sensors for Stopping Train Derailment

Force measurement systems can be employed to measure the contact forces between the wheels and the track. This enables the assessment of wheel-rail interaction, including wheel-rail forces, lateral forces, and rolling resistance. Such data helps optimize track design, wheel profile selection, and maintenance practices to ensure safe and efficient railway operations. Using our Pillow Block Load Bearing Load Cell is a great solution for monitoring trains on a track, in-motion. When our PBLC1 is installed on a track, and the train runs across it, the sensor can provide a signal to a station elsewhere in the world. If any force indicators suggest that there could be a problem with the weight the train is holding or the train itself, the sensor can also trigger an automatic shutdown of the train. These sensors could prevent major damage from train derailments and other train related incidents by detecting errors before the inflict damage. This is a critically important application as innovators begin to release high speed trains for cross country travel.

Smart Trucking Weighing Solution

In this use case, a smart transportation trucking company truck company needs to precisely record the weight or loads being always carried. They would like a wireless weighbridge that is able to transmit, log, and display the results in real time. Interface suggests installing multiple WTS 1200 LowProfile™ Load Cells under a weighing bridge. When a truck drives over it, the load cells will transmit the force results wirelessly to the WTS-BS-4 Industrial Base Station connected to the customer’s PC with provided Log100 software. The WTS-LD2 Wireless Large LED Display can also display the weight inside for the driver monitor at all times.

Smart Vehicle Crash Walls

Improving vehicle safety is smart. For this use case, Interface suggests using multiple 3A400 3-Axis Force Load Cells, and attach it to the back of a cement crash wall. When connected to the BX8-HD44 Interface BlueDAQ Series Data Acquisition System, force result measurements will be recorded and displayed on a computer. The sensors measure the force of impact for all their different vehicle crash testing demonstrations, providing high accuracy data to make the vehicles safer.

Electric Vehicle Structural Battery Testing

As electric vehicles push advancements in efficiency gains, structural battery packaging is at the forefront for optimization in smart transportation. This drives the need to validate structural battery pack design, both in terms of life expectancy against design targets as well as crash test compliance and survivability.  Interface’s solution to this challenge included the 1100 Ultra-Precision LowProfile Load Cells in-line with hydraulic or electromechanical actuators in customer’s test stand. Also utilized were 6A 6-Axis Load Cells to capture reactive forces transmitting through pack structure. Multi-axis measurement brought greater system level insight and improved product success. Using this solution, the structural tests performed validated the battery packs strong structural design.

Interface solutions for smart transportation are growing alongside the pace of innovation as we work with industry demands to provide solutions for what comes next.

Read more in our case study Interface’s Crucial Role in Vehicle and Urban Mobility Markets

ADDITIONAL RESOURCES

Making Products Smarter with Interface OEM Solutions

Testing Labs Choose Interface High Accuracy Products

Modernizing Infrastructure with Interface Sensor Technologies

Interface’s Steering Role in All Types of Transportation

Interface Weighing Solutions and Complete Systems

EV Battery Testing Solutions Utilize Interface Mini Load Cells

Bridge Seismic Force Monitoring Solution App Note

IoT Drone Parcel Delivery

Testing for Commercial Drones and Parcel Delivery

 

Modernizing Infrastructure with Interface Sensor Technologies

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Modernizing infrastructure is a major priority for governments and companies around the world, and significant investments are being made to support this effort. Force measurement solutions are a critical component of modern infrastructure, helping to ensure safety, optimize performance, and improve efficiency. Interface load cells, torque transducers, load pins, tension links and other wireless solutions are used in projects all over the world that are modernizing our global infrastructure in a variety of ways.

The McKinsey Global Institute estimates that global infrastructure investment could reach $79 trillion by 2030, with China accounting for the largest share of that investment. These estimates are based on a range of factors, including population growth, urbanization, and the need for infrastructure upgrades and maintenance.

There is also a heavy emphasis in utilizing sensor technologies for “smart” infrastructure. This includes building smart cities, smart buildings, smart grids, smart highways and intelligent transportation systems.  Read more about how infrastructure related companies, suppliers and civil engineers use our sensors in Infrastructure Projects Rely on Interface,

Intelligent Transportation Solutions for In-Motion Train Track Monitoring

Pillow block load cells are valuable in building and enhancing infrastructure. When our PBLC1 is installed on a track, and the train runs across it, the sensor can provide a signal to a station elsewhere in the world. If any force indicators suggest that there could be a problem with the weight the train is holding or the train itself, the sensor can also trigger an automatic shutdown of the train.

Trains are not new; however, how we can use sensor technologies to keep passengers and cargo is growing in demands. These sensors could prevent major damage from train derailments and other train related incidents by detecting errors before the inflict damage. This type of sensor is a great solution for monitoring trains on a track, in-motion.

How are Interface sensor technologies in modernization projects?

Structural testing: Force measurement solutions are used to test the strength and durability of structures such as bridges, buildings, and dams. Sensors can be attached to the structure and used to measure the forces acting on it, such as wind, vibration, or seismic activity. This information can then be used to identify areas that may be weak or prone to failure, allowing for necessary repairs or upgrades. Read more in our Bridge Seismic Force Monitoring Solution App Note.

Monitoring machinery: Force measurement solutions can also be used to monitor the performance of machinery and equipment. Sensors can be installed to measure the forces generated by the machinery, such as torque or pressure, and this data can be used to identify potential problems before they cause equipment failure or downtime. This is exemplified in our Crane Capacity Verification App Note.

Material testing: Force measurement solutions are also used to test the strength and durability of materials such as metals, plastics, and composites used in modernizing infrastructure. Sensors can be used to measure the forces required to break or deform the material, providing valuable data for material selection and design. Read Interface Solutions for Material Testing Engineers.

Geotechnical engineering: Force measurement solutions can be used to monitor the forces acting on soil and rock formations, which is important for the design and construction of structures such as tunnels, mines, and retaining walls. Sensors can be installed to measure factors such as pressure, stress, and strain, which can be used to ensure the safety and stability of these structures.

As sensor technologies continue to advance, we can expect to see even more innovative projects in the future.

ADDITIONAL RESOURCES

Interface And Infrastructure Markets Form A Perfect Partnership

Uses Cases for Load Pins

Innovative Load Pin Applications

Monitoring The Seismic Force Of A Suspension Bridge

Infrastructure-Brochure-1

Detailing Pillow Block Load Bearing Load Cells

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Most commonly, a pillow block bearing is used to create a rolling system. This type of bearing is often utilized for industrial rolls for textiles, paper, and materials. It is also used on conveyor belts in manufacturing facilities. There are other common use cases in a variety of industries, including in transportation, medical device design, and aerospace.

Interface offers specialized loads cells designed to measure and monitor weight and other forces on pillow block bearings, aptly known as Interface Pillow Block Load Bearing Load Cells. The force measurement is performed for this load cell between two supports.

Pillow Block Bearing Load Cell Spans Multiple Industries

Pillow block bearing load cells are important in all types of industries where accurate load measurement is required during production and use of rollers, small and large. Some examples include:

  • Steel industry: Pillow block load cells can be used in roller mills to measure the force required to crush or shape steel.
  • Textile industry: Pillow block load cells can be used in textile machines such as looms and knitting machines to measure the tension on the yarn.
  • Packaging industry: Pillow block load cells can be used in packaging machines to measure the force required to cut or seal packaging materials.

Pillow block load cells are valuable in building and enhancing infrastructure. Using our PBLC1 is a great solution for monitoring trains on a track, in-motion. When our PBLC1 is installed on a track, and the train runs across it, the sensor can provide a signal to a station elsewhere in the world. If any force indicators suggest that there could be a problem with the weight the train is holding or the train itself, the sensor can also trigger an automatic shutdown of the train. These sensors could prevent major damage from train derailments and other train related incidents by detecting errors before the inflict damage.

These weights are important to measure or monitor as they can tell you if you are running out of material on a roll, or if a production line conveyor belt is holding too much weight. An example of the feed roller system using our wireless options is below.

Manufacturing Feed Roller System

Feed roller systems are common in production and manufacturing. In this example, a feed roller system needs to monitor the forces of both ends of the rollers, to maintain a constant straight feed. This reduces waste and ensure quality in the product use. They would also prefer a wireless system. Interface suggests installing two PBLC Pillow Block Load Cells at both ends of the bottom roller to measure the applied forces. The output of measurement is sent to the instrumentation device, our WTS-AM-1E Wireless Strain Bridge Transmitter Module. The data is then transmitted wirelessly to the WTS-BS-6 Wireless Telemetry Dongle Base Station and the WTS-BS-1-HA Wireless Handheld Display for multiple transmitters, where data can be displayed, graphed, and logged a computer. Learn more about this type of use case in our Feed Roller System Application Note.

In addition to this use case, here are a few other ways Pillow Block Load Cells are used to measure weight and force:

  • Material handling: Pillow block load cells are commonly used in conveyor systems to measure the weight of materials being transported.
  • Automotive industry: Pillow block load cells are used in assembly line applications to measure the weight of parts and components being assembled.
  • Heavy machinery: Pillow block load cells are used in cranes, bulldozers, and other heavy machinery to measure loads and monitor the equipment’s performance.
  • Manufacturing: Pillow block load cells are used in material testing machines to measure the force required to break or deform materials.
  • Aerospace: Pillow block load cells are used in aerospace applications to measure the weight and balance of aircraft and spacecraft.
  • Medical industry: Pillow block load cells are used in medical equipment such as patient lifts and hospital beds to measure the weight of patients.
  • Food industry: Pillow block load cells are used in food processing and packaging equipment to measure the weight of ingredients and finished products.

Pillow Block Bearing Load Cells Product Overview

This type of force sensor is suitable for the measurement of forces under pillow block bearings for diameter Ø 20mm (Ø 0.79 in) and for the measurement of axle weight in test stands for trains and vehicles. Our system is compatible with INA Pillow Block Bearings and is installed underneath the bearing to measure force. There are three model versions, with the options for additional multi-axis measurements for engineer to order products.

PBLC1 Pillow Block Load Bearing Load Cell

PBLC2 Pillow Block Load Bearing Load Cell

PBLC3 Pillow Block Load Bearing Load Cell

Features and benefits of our Pillow Block Load Cell include:

  • Capacities from 5 to 30 kN (1.1K to 6.7K lbf)
  • Compatible with INA pillow block bearings
  • IP65 moisture protection
  • Rugged electro-galvanized surface

In addition, our Pillow Block Load Cell are also available in multi-axis versions, which allows for more force data from your test application. This helps with measuring forces such as center of gravity, tension across a load bearing beam and more. These multi-axis versions come in two and three axis models. If you are looking to get accurate measurement for your pillow block bearing use cases, contact our specialized application engineers.

ADDITIONAL RESOURCES

Interface Manufacturing and Production Solutions

Quality Engineers Require Accurate Force Measurement Solutions

Interface New Product Releases Winter 2023

Infrastructure Industry Relies on Interface Force Measurement

Interface Solutions for Production Line Engineers

Industrial Automation

 

Innovative Interface Load Pin Applications

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A load pin, which often replaces a standard clevis or pivot pin, is a strain gage sensor that measures the force applied across the device. The strain gages are installed within a small bore through the center of the pin. Interface load pins have been used in a wide variety of projects across industries.

Load pins are a simple, but highly powerful sensor that provides data collection for accurate and frequent measurement. The load pin can replace a bolt, clevis, sheave, and an equalizer pin, as well as other load-bearing components to measure tensile and compression forces.

Machined from high tensile stainless steel, Interface load pins are suitable for exposed situations including seawater. We offer standard sizes of load pins between 1.1K lbf to 3.3M lbf (500kgs to 1500 MT). We also have wireless load pins. Interface load pins are custom manufactured to meet specific dimensional requirements for each application, as detailed in our Use Cases for Load Pins webinar.

The most commonly referenced applications for load pins are for overhead equipment like cranes and lifts. Through ingenuity of engineers and our customers, load pins are rapidly expanding in popularity for infrastructure, aerospace, maritime, agriculture, and industrial use cases. The load pins of today are used to test and measure force, load and weight in a much larger variety of applications. They are also growing in demands due to their wireless capabilities for both short and long distances. This includes uses not only for cranes and lifting devices, as well as construction equipment, industrial machines, nautical craft and equipment, aerospace structural environments, and civil engineering applications.

Infrastructure investment and projects around the world are on the rise. Investments in transportation ways like highways, waterways, bridges, mass transit, water supplies and power generation are frequently in demand of load pin solutions for use in all phases of the projects, from construction to maintenance and real-time monitoring.  Some of these examples are highlighted in Infrastructure Projects Rely on Interface.

Interface has a great deal of experience supplying ruggedized and standard use load pins for testing. Our load pins are highly demanded in the infrastructure industry not only due to the accuracy and reliability of our sensors, but also due to the fact that we offer a myriad of communication channels to offer both wired and wireless solutions. As requirements are made to repair and rebuild public infrastructure resilience, equity, and safety for all users are key criteria in design and build stages.  This is where Interface load pins are key to the solution, for durability, accuracy, quality, and ease-of-use.

Interface captured a few application examples of how our load pins are used for different types of projects, from maritime submersibles to monitoring new bridges during earth’s constant shifting.

AEROPSPACE:  Landing Gear Joint Testing

A global manufacturer in aerospace needs to test their new assembly and design by testing its landing gear joints. They want to ensure there are no flaws in the gear shock absorber design and can handle the applied forces when the craft lands from a flight. Interface’s WTSLP Wireless Stainless Steel Load Pins can be installed and replace the normal pin joints. The aircraft undergoes multiple drop tests at different heights, where the forces applied on the load pins transmitting the measurement data. The force results are transmitted wirelessly to the WTS-BS-4 USB Industrial Base Station and the WTS-BS-1-HA Handheld Digital Display for multiple transmitters. Read more about this load pin use case here.

MARITIME: Quick Release Hooks (QRH)

A customer wanted to test their quick release hook (QRH) system when their vessels are docked. They wanted to ensure the mooring lines are secured, but also, the quick release hooks were able to be easily and safely released. Interface’s WTSLP Stainless Steel Load Pin was installed into the quick release hook, where forces from the mooring lines can be measured and displayed when paired with the WTS-BS-4 USB Industrial Base Station. The load tension forces were displayed in real-time on the customers PC or laptop. The WTS-RM1 Wireless Relay Output Receiver Module alarm could also be triggered for the customer when maximum safety work load capacities have been reached or are overloaded. Using this solution, the customer was able to determine if their quick release hooks worked effectively within the safe working limit specifications, and was aware of any potential overload situations. Read more here.

INFRASTRUCTURE: Bridge Seismic Force Monitoring

A customer wanted to monitor seismic activity that occurs to a bridge by using force sensors and then continuously monitoring bridge forces before, during and after earthquakes occur. The customer preferred a wireless solution so they would not need to run long cables on the bridge. Interface helped to develop its LP Load Pin, which were custom made to fit their needs along Interface Inc. WTS Wireless Telemetry System continuous force monitoring was able to take place without long cables. Using this solution, the customer was able to monitor continuous loads, log information to the cloud and review information. Read about this solution here.

AGRICULTURE: Tractor Linkage Draft Control

A farming operation needs to measure the forces applied on their tractor’s draft control, between the tractor and any linked on attachments. Measuring the force helps the farmer sense any strains on the hitch of the tractor, and will be needed in order to apply any specific settings to the draft control when the tractor encounters rough terrain.  Interface’s WTSLP Wireless Stainless Steel Load Pin is a wireless load pin that can be installed directly in the hitch, replacing the normal shear pin of the tractor. Force results are transmitted wirelessly to the WTS-BS-4 USB Industrial Base Station, where they can view the results on a computer using Interface’s WTS toolkit. The customer can also view results on the WTS-BS-1-HS Handheld Display for Single Transmitters in real-time. Read more about this IoT Agriculture solution here.

 

INDUSTRIAL AUTOMATION: Crane Block Safety Check

A customer wanted a system to detect if their crane block can lift heavy loads securely, in order to keep working conditions and personnel safe. If lifting capacities are exceeded, the customer wanted a system to alarm them in real-time. Interface’s WTSLP Wireless Stainless Steel Load Pin replaced the existing load bearing pin in the crane block in order to measure the force being applied by the heavy load. The data was transmitted and displayed through both the WTS-BS-4 USB Base Station (when paired with the customer’s supplied PC computer/Laptop) and the WTS-BS-1-HA Wireless Handheld for real-time results. The WTS-RM1 Wireless Relay Output Receiver Module could also trigger an alarm when maximum capacity has been reached. The WTSLP Wireless Stainless Steel Load Pin, combined with the WTS products, was able to measure and determine force applied the moment a heavy load is lifted. The results were transmitted wirelessly, and ensured the customer whether or not the crane block was safely operational during production.

Are load pins the right solution for your project? Contact our load pin application engineers to learn more.

ADDITIONAL RESOURCES

Load Pins, Tension Links, and Shackles

Uses Cases for Load Pins

Recap of Use Cases for Load Pins Webinar

Applications Catalog

Load Pins 101

LP-TL-Shackles-Brochure

Exploring Interface Capabilities and Differentiators

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Interface is the largest producer of load cells defined by a particularly important core differentiator. The Interface difference is precision.

How do we maintain this standard of excellence? Interface is directed by our foundational 4-pillars for success: quality, service, accuracy, and innovation. This applies to anything and everything that we do, including manufacturing premium force measurement products, engineering and design, custom solutions, providing calibration and repair, and in our commitment to service.

Interface has long been known for providing accuracy-based sensor technologies, innovative solutions, engineering excellence and quality products that our customers trust. We have detailed our breadth and depth of capabilities and differentiators for our products that are designed to serve customers across a growing number of industries.

In our online capabilities statement, you can find:

  • Interface differentiators
  • Interface core products and expertise
  • Certifications
  • Industry NAICS and PSC Codes
  • Interface’s Company Snapshot

Our customers around the world are innovators, market leaders, boundary-breaking, finding ways to do things differently, make things safer, improve products and create new all through the measurement of force. We provide solutions for test and measurement, as well as OEM. This includes companies in aerospace and defense, automotive and vehicle, medical devices, energy, industrial automation, entertainment and amusement, agriculture, maritime, infrastructure, and equipment manufacturing.

As world’s trusted leader in force measurement technology, design, and manufacturing, it is important that we guarantee the highest quality performance of load cells, torque transducers, multi-axis sensors, wireless telemetry, instrumentation, calibration and more. To do this, it is the Interface people, technology, manufacturing, engineering, and force measurement solutions that make the difference.

Here are just a few of Interface’s key differentiators and capabilities:

  • PROPRIETARY STRAIN GAGES: We make our strain gages and assemble them in the same buildings as our final sensor testing is performed in-house to ensure the quality and accuracy.
  • THE STANDARD: Interface is the standard for all load cells. Since 1968, our LowProfile® load cells have been used throughout the world because of their accuracy and dependability.
  • CALIBRATION: Our trademarked Gold Standard Calibration System is the industry ‘gold standard’ for test and measurement.
  • SYSTEMS: Interface is the only major load cell company offering a comprehensive system for customers to calibrate their own load cells.
  • CERTIFICATIONS: Every load cell we make is individually calibrated and tested through a series of performance tests before it leaves our facility.
  • STANDARD, ENGINEERED-TO-ORDER AND CUSTOM: We design and build our force measurement solutions, delivering the broadest variety of available options in the industry.
  • TEAM: Our team is an extended network of professionals that design, build, administer, sale and support our customers with the best force measurement solutions that fit their exact requirements based on expertise and experience.

You can see all the Interface differentiators in our capabilities statement.

We’ are proud of the Interface brand, our five-decade legacy as a leader in the industry and fact that we are a women-owned manufacturing company. We guarantee our products quality because every employee and partner take pride in our work. It is our dedication to deliver on our promise.

Capabilities-Statement

Why Civil Engineers Prefer Interface Products

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Infrastructure is one of the most vital industries that utilize Interface force measurement solutions. Our products are chosen for the design, engineering and construction of public works projects including roads, energy structures, bridges, dams, airports, sewage systems, and pipelines.

Civil engineering is a professional discipline that deals with the design, construction, and maintenance of the physical and naturally built environments. It’s the oldest engineering discipline after military engineering, and it was specifically defined to distinguish non-military engineering from military engineering.

Civil engineering is traditionally broken into several sub-disciplines including environmental engineering, geotechnical engineering, structural engineering, transportation engineering, municipal or urban engineering, water resources engineering, materials engineering, coastal engineering, surveying, and construction engineering.

Civil engineers choose Interface sensors for testing structural components as well as for embedding sensors within buildings, waterways, and railways to ensure sustainable and safe construction, modifications, improvements, repairs and use.

Civil engineers’ relationship with and use of force measurement devices is based on two things: testing designs and monitoring completed projects.

Load cells are used from a test perspective throughout the development of infrastructure projects. For example, load cells test specific materials used in the construction of a building to ensure they can handle the required weights and environmental conditions. In the design of a drawbridge bridge, engineers use load cells to test the hydraulic system to ensure it will provide enough force to lift the bridge from a single time to thousands of times by using stress test rigs.

The use of various sensors and measurement devices in civil engineering and construction sectors has grown significantly in recent years. The sensor data from Interface load cells is utilized in every aspect, from rugged construction equipment for regulatory and safety monitoring to real-time quality monitoring of physical structures. One of the reasons is due to the advances in monitoring and reporting capabilities of sensor data. Accessibility to data has improved the ability to use it for complex calculations as well as analyze enormous amounts of output information in real-time. The benefits are improvements in structural designs and overall engineering as a result.

By accessing data remotely through Interface digital instrumentation products, those within the industry can deploy more practical solutions than were historically impossible during some of the original designs. This has transformed approaches to force measurement and load monitoring, providing robust calculations in structural and material engineering. This functionality is why civil engineering sectors rely on Interface for advanced products that deliver accurate, quality and reliable performance.

The following video highlights many products utilized in the infrastructure industry by civil engineers and for the equipment used in construction of their designs.

Force measurement is even used by civil engineers in testing the construction equipment used in a variety of infrastructure projects. One example of this is when Interface supplied a force measurement system to construction engineers to test an aerial lifts capabilities and capacities for safe use.

Aerial Lift Overload Control

A manufacturing company for aerial lifts wanted to test its self-propelled boom lift to ensure it can operate at heavy capacities when in use, and at different angles. They also wanted to prevent any accidents in case of a lifting overload, for the safety of any working individual who uses it. Interface’s solution was to attach the 3A160 3-Axis Force Load Cell to the bottom of the bucket of the boom lift. The 3A160 3-Axis Force Load Cell gave high accuracy results, which can be displayed using the 920i Programmable Weight Indicator and Controller in real time. The manufacturing company tested their aerial boom lifts and determined it was safely operable when maximum capacities had been reached.

Adversely, engineers are also designing force sensors into projects allowing them to monitor the effects of force on certain infrastructure over time. Take for example a project that Interface was involved in that required the monitoring of a bridge.

Bridge Seismic Force Monitoring Solution

A customer wanted to monitor seismic activity that occurred to a bridge by using force sensors, and then continuously monitor bridge forces before, during and after earthquakes. Engineers on the project also preferred a wireless solution so they would not need to run long cables on the bridge. Using Interface’s LP Load Pin custom made to fit their needs, along with Interface Inc. WTS Wireless Telemetry System, continuous force monitoring was able to take place without long cables. The engineers were then able to monitor continuous loads, log information to the cloud and review information, ensuring the bridge would uphold over time and constant seismic activity. Or, allowing engineers to determine when and where repairs are necessary.

Civil engineers represent the minds and hands building critical infrastructure. This is why Interface works closely with those in this profession to ensure our sensors provide the highest quality, accuracy and reliability to keep people safe and moving across our country. To learn more about our work in infrastructure, please visit our Interface Infrastructure Solutions.

Additional Resources

Interface and Infrastructure Markets Form a Perfect Partnership

Infrastructure Industry Relies on Interface Force Measurement

Interface Solutions Designed for Infrastructure Challenges

Infrastructure Projects Rely on Interface

Monitoring the Seismic Force of a Suspension Bridge

Infrastructure-Brochure-1

Interface and Infrastructure Markets Form a Perfect Partnership

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Infrastructure projects are growing, as investment continues to climb for projects related to rebuilding, renewing and innovating applications in this sector. These global investments come from public and private organizations as demands to address roads, bridges, water supplies, transportation, energy systems, and broadband requirements for the 21st century grow.

Experts who focus on infrastructure acknowledge these are means for civil existence and prosperity. Interface understands that our role in supporting the design, testing, manufacturing, constructing and maintenance required in infrastructure needs a top supplier of force measurement solutions.

Interface force measurement solutions have and are currently used around the world for infrastructure projects including bridges, generators, dams, waterways, transportation structures, construction projects, cranes and lifting apparatus, and heavy machinery.

Interface supplies durable and accurate sensor technologies used in testing equipment, technology, vehicles, tools and machines used in all types of infrastructure subsectors. We also find our products often designed into structures for regulatory and safety monitoring, whether that be to maintain tunnels or support wind generating farms.

Interface details force measurement products we commonly provide to those working and supporting the infrastructure sector in our Infrastructure Solutions Brochure. You can see some of these products in our Infrastructure Solutions video.

Interface load cells, load pins, instrumentation, multi-axis sensors, and torque transducers are top choices for those engaged in infrastructure projects and testing. Sensors are commonly used in measuring the related hardware used for industry products and structures. The types of infrastructure projects that Interface has supplied measurement solutions for includes transportation systems, communication structures, water and electrical facilities, and numerous inventions that are used to build, support, and maintain them, as outlined in Infrastructure Projects Rely on Interface.

Our expert engineers can help design customizable force measurement solutions for all types of applications that require sensors for OEMs and to be used in the actual structure for continuous measuring and monitoring. We have engineered sensor products used for civil engineering designs and infrastructures used in structural monitoring, vibrational monitoring, load bearing testing, tunnels, bridges, and road construction. The range of projects are broad, so we are highlighting a few below that highlight our capabilities when accuracy, quality and reliability matter in design, testing, construction, and assessing current and limitations for safety requirements.

Hydraulic Jacking System Testing

An equipment manufacturer needed to test their hydraulic jacking system’s ability to lift heavy loads and objects, like a bridge during construction. They wanted to monitor the forces being applied to ensure the hydraulic jack is not only safe to use, but works well enough to avoid any potential structural issues. Interface’s 1200 Standard High Capacity Load Cell can be attached in between the hydraulic jack and a heavy load. The load cell measures the forces of the hydraulic jack as it lifts the load cell located in between the jack and the object. With the 9890 Strain Gage, Load Cell, & mV/V Indicator, the customer is also able to see the results in real-time. Read more here.

Aerial Lift Overload Control

A manufacturing company for aerial lifts wanted to test its self-propelled boom lift to ensure it can operate at heavy capacities when in use, and at different angles. They also wanted to prevent any accidents in case of a lifting overload, for the safety of any working individual who uses it. Interface’s solution was to attach the 3A160 3-Axis Force Load Cell to the bottom of the bucket of the boom lift. The multi-axis sensor provides high accuracy results, which were displayed using the 920i Programmable Weight Indicator and Controller in real time. The manufacturing company tested their aerial boom lifts and determined it was safely operable when maximum capacities has been reached in use. Read more here.

Truck Weighbridge Monitoring

A transportation company needed to record the weight or loads being carried by their vehicles. They would like a wireless weighing bridge that is able to transmit, log, and display the results in real time. Interface suggests installing multiple WTS 1200 LowProfile™ Load Cells under a weighbridge. When a truck drives over it, the load cells will transmit the force results wirelessly to the WTS-BS-4 Industrial Base Station connected to the customer’s PC with provided Log100 software. The WTS-LD2 Wireless Large LED Display can also display the weight inside for the driver to see in real time. The customer was able to measure, log, and graph the different loads their trucks carried wirelessly onto the weighbridge with success, providing for safe passage across transportation ways. Read more here.

Hydropower Turbine Generator Monitoring

A customer wanted to monitor and detect any turbine generator faults in their hydroelectric power plant located on a river. Interface’s solution was to use the T2 Ultra Precision Shaft Style Rotary Torque Transducer and attach it to the turbine generator with Interface’s Shaft Style Torque Transducer Couplings. When water from the river pushes through the penstock to the outflow, it moves the turbine blades, creating electricity through the generator shaft. Torsion measurements can be graphed and logged with the 9850 Torque Transducer and Load Cell Indicator catching any unusual fluctuations and vibrations. Using this solution, the customer was able to monitor, graph, and log the torque measurement results of the turbine generator. Read more here.

Bridge Seismic Force Monitoring

A customer wanted to monitor seismic activity that occurs to a bridge by using force sensors and then continuously monitoring bridge forces before, during and after earthquakes occur. The customer also preferred a wireless solution so they would not need to run long cables on the bridge. Using Interface’s LP Load Pin custom made to fit their needs along Interface’s WTS Wireless Telemetry System for continuous force monitoring the designed solution was able to take place without long cables. The solution allowed the customer to monitor continuous loads, log information to the cloud and review information. Read more here.

Interface’s work with all facets of the infrastructure industry spans far and wide. Interface is a supplier of choice and key partner for providing reliable sensors and instrumentation solutions used in testing and monitoring of both the infrastructure and the equipment used to upgrade and refine it.

ADDITIONAL RESOURCES

Infrastructure Industry Relies on Interface Force Measurement

Infrastructure Projects Rely on Interface

Interface Solutions Designed for Infrastructure Challenges

Monitoring the Seismic Force of a Suspension Bridge

 

 

 

Infrastructure Industry Relies on Interface Force Measurement

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The safety and stability of the structures and facilities that are used by towns, cities, organizations, governments and countries are essential to their successful operations. In the design and construction, it is a requirement to ensure that every component measures up to the standards that protect those that depend on their functionality.

Test and measurement are critical in every stage of any infrastructure project. Civil engineers, project managers, institutions, construction companies utilize sensor technologies today. This includes load cells, torque transducers, instrumentation, multi-axis sensors, load pins and load shackles and wireless technologies.  The infrastructure industry has long depended on Interface’s durable and reliable products for all types of projects, from early conception through maintenance.

Where are Interface infrastructure industry measurement solutions used today? Interface has been a supplier to entities around the world that are involved in every type of infrastructure projects including complex transportation systems, versatile communication structures that cross all types of terrain, water and electrical power sites, as well as new inventions that are used to build, support, and maintain various structures around the world.

Infrastructure Case Study

In our recent infrastructure case study, Infrastructure Projects Rely on Interface, we detail different use cases in the multi-trillion dollar global industry. There is no shortage of opportunity to invest in infrastructure and ensuring that every project meets the rigid regulatory requirements means a test plan is essential throughout the entire process.  Every test plan needs accurate and quality measurement solutions that are capable of structural monitoring, load bearing testing, vibrational monitoring, construction equipment and material testing use cases.

Here are just a few of the project types that depend on Interface solutions:

  • Roads, Streets and Highways
  • Waste Management
  • Mass Transportation Vehicles
  • Energy and Power Generation
  • Bridges and Tunnels
  • Railways
  • Airport Structures and People Movers
  • Dams and Water Supply
  • Telecommunications and Satellite

Beyond construction, Interface is supplying equipment manufacturers for use in construction and infrastructure maintenance projects. In the application note, Aerial Lift Overload Control, we provided a top manufacturing company for aerial lifts precision tools to test its self-propelled boom lift. The solution needed to ensure the lift could operate at heavy capacities when in use, and at different angles. The lift required a design that was proven to prevent any accidents in case of a lifting overload, for the safety of anyone working on or near the equipment. Interface proposed used our three multi-axis sensor model 3A160 3-Axis Force Load Cell to the bottom of the bucket of the boom lift. The 3A160 3-Axis Force Load Cell provides high accuracy and the measurements could be displayed using the 920i Programmable Weight Indicator and Controller in real time. The company was able to use these products to test their aerial boom lifts and determined it was safely operable at maximum capacities

You can get more insights on how we play a pivotal role in the infrastructure industry in these application notes and references:

Concrete Dam Flood Monitoring App Note

Hydropower Turbine Generator Monitoring App Note

Interface Solutions for Waste Management Applications

Force Measurement Solutions for the Construction Industry

Interface Crane Use Cases and Application Notes

Seismic Application for Interface Load Pins

Interface Solutions Designed for Infrastructure Challenges

Interface Infrastructure Case Study

Where to Find 50 New Force Measurement Application Notes

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One of the advantages we have at Interface is that our application engineers and solutions experts are constantly recommending Interface load cells, torque transducers, instrumentation and accessories for a wide range of projects and programs.  In this fortunate position, it enables our team to explain why and how these solutions work through a series of illustrative application notes. We detail the problem statement, the products required to achieve the desired outcome, and the measurable results in every Interface application note.

The purpose of our app notes is to show the range of capabilities for products we offer, as well as inspire product designers, engineers, and testing professionals to expand how they use sensor technologies. We also increased our industry solutions to highlight a growing interest of how our products are used in agriculture, maritime and infrastructure force and torque measurement projects.

In 2021, Interface produced a record 50+ new application notes.  We have so many application notes, we even produced a first ever complete Interface Applications Catalog.  The type of applications we detailed this year range from space docking to golf swing testing, with everything in between. You can find applications for livestock weighing, crash wall testing, crane safety regulation and even commercial fishing line tests.

Every application note includes a graphic that highlights how the test project is designed and how the products work together. All our illustrated application notes can be found here.  We also have a collection of animated application notes you can watch here.

So if you didn’t keep up with every application note we added this year, here is a quick reference:

AUTOMOTIVE AND VEHICLE

Automotive Head Rest Testing

Pre-Installation Sealing Sensor Testing

Automotive Window Pinch Force Testing

Airbag Connector Testing

Vehicle Crash Test Load Cell Wall

Torque Measurement for Electric Vehicles

TEST AND MEASUREMENT

Garbage Truck On-Board Weighing

Bike Helmet Impact Test

Bike Handlebar Fatigue Testing

Mobile Force System

Gaming Simulation Brake Pedal

Mountain Bike Shocks Testing

Spring Compression Testing

Proving Theoretical Cutting Forces of Rotary Ultrasonic Machining

Fitness Equipment and Machines

6-Axis Load Cell Solutions using Raspberry Pi

Mouse Touch-Pad Force Testing

Treadmill Force Measurement

Veterinary Weighing Scales

E-Bike Torque Measurement

Bike Power Pedals

Bike Load Testing

Bike Frame Fatigue Testing

Golf Club Swing Accuracy

Golf Ball Tee

INDUSTRIAL AUTOMATION

Commercial Food Processing

6-Axis Force Plate Robotic Arm

INFRASTRUCTURE

Aerial Lift Overload Control

Concrete Dam Flood Monitoring

Hydraulic Jacking System Testing

AGRICULTURE

Tractor PTO Torque Testing

Silo Grain Dispensing

Poultry Feeder Monitoring

WTS Equine Bridle Tension System

BTS Equine Bridle Tension System

Livestock Weighing System

Tractor Linkage Draft Control

Chicken Weighing

Silo Monitoring and Weighing

MEDICAL AND HEALTHCARE

Tablet Machine Hardness Tester Calibration

Dental Handpiece Torque Check

Interventional Guidewire Quality Inspection

Tablet Hardness Testing

AEROSPACE AND DEFENSE

Space Dock Capture Ring Force Testing

Aircraft Yoke Torque Measurement

Aircraft Screwdriver Fastening Control

Landing Gear Joint Testing

Aircraft Engine Hoist

Rescue Helicopter Hoist Test

MARTIME

Mooring Quick Release Hooks (QRH)

Commercial Fishing Wire Rope Testing

Mooring Line Tension Testing

Crane Block Safety Check

Crane Capacity Verification

Crane Force Regulation

We would like to send a special thank you to our illustration and design team of Lauren O’Hagan and Scott Whitworth for all their work in creating this array of illustrations, along with a special shout out to Ken Bishop and Keith Skidmore that help us create all these application stories.

What’s new in 2022? Stay close to our Interface IQ Blog and watch our updates on the homepage and solutions for new inspirations and unique examples how engineers and product designers are thinking about using our sensors,