S-Beam Load Cells are The Versatile Choice

May 8th, 2012

A Miniature S-Beam Load CellS-beam load cells are a highly versatile measuring device suitable for measuring a broad range of tensile or compressive loads from a few hundred grams right up to 30 tonnes with very high accuracy (better than 0.05% in most cases).

Simple installation and compact size makes the S-beam load cell an ideal choice for many applications including materials testing, suspended hopper weighing, and winch monitoring where the in-line mounting arrangement via 2 female threads makes the machine builders life easy.

The majority of our range of s-beam load cells are available ex-stock and are competitively priced.  Custom or modified versions can be provided if required while our catalogue of existing modifications include; miniature (35mm high), waterproof, fully submersible, high temperature resistance and high frequency response versions.

To accompany your S-Beam load cell we offer a large range of analogue and digital amplifiers/signal conditioners, digital displays, and data acquisition instrumentation.  Most popular among these are our handheld TR150 digital strain gauge indicator and the mains powered Intuitive2-L digital load cell panel indicator, while our newest range of instrumentation, the T24 wireless telemetry collection, offers up-to-the-minute design allied with superb flexibility and performance.

When connecting a load cell to any of our amplifiers, indicators or data acquisition systems we can also offer a UKAS Traceable Calibration to provide you a complete ready-to-go system.

View our standard s-beam load cells here, or contact one of our expert sales engineers on 01189 817339 or by email to discuss your s-beam load cell requirements now!

New Range of Rotary Torque Transducers

November 17th, 2011

DRDL Dual Range Rotary Torque SensorApplied Measurements are pleased to announce exclusive UK distribution of a new range of brushless rotary torque transducers from German manufacturer ETH Messtechnik.  ETH were chosen for the very high performance capabilities and exemplary quality of their torque sensors which will compliment our own existing range of rotary and static types.

Initially we have introduced five torque sensors to our range, here is a brief summary of each model:

  • DRBK Low Cost Torque TransducerDRBK – A compact and low cost shaft type torque sensor available with capacities from 0-5Nm up to 0-1000Nm, maximum speeds up to 22,000rpm and a ±5Vdc conditioned output signal.  A pulsed speed/RPM output is optional.
     

  • DRFL High Accuracy Torque TransducerDRFL – A compact, high performance shaft type torque sensor with an accuracy class of ±0.1%/rated capacity.  Capacities available range from 0-0.05Nm up to 0-20,000Nm with maximum speeds up to 37,000rpm.  Torque output is ±10Vdc with optional pulsed speed and angle outputs available if required.
     

  • DRFN Rotary Square Drive Torque SensorDRFN – A square drive type torque sensor suited to torque tool testing, automotive assembly and manufacturing applications.  Square drives are to DIN 3121, capacities range from 0-0.5Nm to 0-5000Nm and torque output is ±5Vdc.  A pulsed angle output is optional with rotational speeds up to 12,000rpm possible.
     

  • DRDL Dual Range Rotary Torque SensorDRDL – A dual-range shaft type torque sensor with rated capacities from 0-0.5 to 0-1500Nm available. The second measuring range is factory-set to anywhere from ½ to 1/10 of the primary measuring range (rated capacity), i.e. Range 1 = 0-2Nm, Range 2 = 0-0.2Nm.  An electrical output of ±10Vdc per range is provided as standard with pulsed speed or angle outputs optional.
     

  • DRWPL IP67 Waterproof Rotary Torque SensorDRWPL – A shaft type IP67-rated waterproof torque sensor designed for use in harsh operating environments where dust, dirt, moisture and water are present, it can even withstand short-term immersion!  Rated capacities range from 0-0.1Nm up to 0-1500Nm with a ±10Vdc output provided as standard with pulsed speed or angle outputs optional.  This unit offers superb accuracy of
    <±0.1%/rated capacity along with maximum rotation speeds up to 20,000rpm.
     

Standard or customised couplings can be offered to suit all of the above torque sensors ensuring simple integration into your system whilst maintaining maximum performance.   Associated monitoring and control instrumentation can also be supplied calibrated and configured with your chosen sensor as a complete torque measurment system.

Contact our expert sales team to discuss your application today either by phone (+44 (0) 1189 817339), email, or via our online web enquiry form.

Submersible Compression Load Cell Resists Freeze-Thaw Weathering

July 26th, 2011

Submersible Annular Load CellApplied Measurements have just designed and manufactured a special version of their compact CCG annular load cell (also known as a ‘ring load cell’ or ‘donut load cell’) for use in a particularly tough application where it is submerged 1 metre deep in potable water, subjected to a force of 160kN (~16 tonnes) and subjected to a repeated cycle of freezing and thawing.

The load cell design utilises 17-4PH stainless steel for the sensing element and cover in conjunction with a stainless steel IP68 cable gland, submersible polyurethane cable and a double ‘O’ ring sealing system to ensure that the transducer’s integrity is maintained at all times.

The submersible load cells achieved an accuracy of better than 0.5% of rated capacity despite their low height of just 40mm.  It was also fully temperature compensated over the operating range to minimise the effect of the application’s cyclic thermal profile.

The submersible CCG annular load cell, alongside the DDEN in-line submersible load cell, are just two of a number of customised transducer designs from Applied Measurements that are suitable for both permanent and temporary submersion in a variety of medias including water and hydraulic oil.

In addition to low level submersion applications where external pressures range from a few hundred millibar up to 4 or 5 bar typically, we also specialise in the design of load cells for use in applications where much higher pressures in excess of 620bar (9000psi) are present, such as subsea vessels and systems, ROVs & AUVs, oil well tools and pressurised vessels.  The majority of these designs feature a pressure compensation system to nullify the external stresses experienced in these demanding situations and ensure high accuracy measurements.

For further information on the submersible annular load cell, or to discuss the design of a customised sensor for your particular application in detail, please contact our sales engineers by telephone on +44 (0) 1189 817339, or by email info@appmeas.co.uk.

UK Calibration Service for Microtronics BlueForce and SpeedForce EN 12445 Impact Force Testers

May 12th, 2011

Microtronics SpeedForce & BlueForce EN 12445 Impact Tester ImageApplied Measurements are now offering a UK-based, UKAS traceable calibration service for all Microtronics BlueForce and SpeedForce EN 12445 / EN 12453 gate impact force tester models.

It is vital to have your impact force tester calibrated every 12 months to ensure that it is performing to specification and giving accurate force readings, as well as maintaining your CE documentation portfolio with an up-to-date calibration certificate.

We offer two levels of service to choose from depending on the urgency of your requirement; 7 working days, priced at £149.00 GBP, or an accelerated 3 working days priced at £169.00 GBP.
Return shipment of the meter via a next day City Link service is included free of charge and a new calibration certificate is also issued.

If you are a member of the AESIF (Automatic Entrace Systems Installers Federation) you are entitled to a special discounted price on both our levels of calibration service when purchased directly from Applied Measurements.  If you have not yet joined, you can sign up to become a member of the AESIF here.

If you have a BlueForce or SpeedForce that you need to have calibrated, please make a note of the serial number of your meter and then contact our sales team to obtain an RMA number.  You can get in touch either by phone on 01189 817339, or by email: info@appmeas.co.uk

Force Measurement Determines The Effect of Girth Tension on Horse Gait

January 7th, 2011

Moulton College, Northampton – Using electrical systems for the measurement of mechanical forces is by no means limited to machines and laboratory based applications. In her recently completed research thesis ‘Girth Tensions and their Effects on Equine Stride Characteristics’, Sue Wright of Moulton College Northampton used load cells, motion sensors and GPS amongst other technologies to measure and record the tension within the girth strap used to hold the saddle in place.

The aim of the investigation was to determine if girth tension affects equine stride characteristics.  The positioning and tightening of the girth strap has traditionally been based on the rider’s preference or own training, in the knowledge that too loose or too tight would be dangerous to both rider and horse.

Equine Girth Strap Force Measurement in Action at Moulton College

It is well known that optimum girth tension varies between the size and type of horse, the activity –racing etc and the type of girth. However there is little if any published information on girth tension and how this may affect the locomotion of the horse, that is duration, stride length and speed.

A custom designed S-type tension load cell was used to continuously monitor the tension in the girth during the period under test. The load cell was mounted almost vertically alongside the chest of the horse where unwanted torsional effects on the load cell would be at their minimum, it was fitted to the strap via rod-end bearings and a cam buckle so that minute changes to the girth tension could be made.

This was connected to a T24 telemetry module, located in a pouch on top of the saddle which transmitted the force measurement reading wirelessly to a telemetry base station located nearby.  This was plugged into a laptop that served to both power it and log the tension reading.

Extensive testing on 19 horses at 4 girth tension settings were conducted resulting in definite conclusions on the effect of girth tension on the speed, stride length, stride duration and walk.

This application is typical of the way in which Applied Measurements’ custom force sensors are helping all sectors of research and development as well as solving the needs of industrial production.

For more information on our custom force sensors capabilities and other load measurement products, please contact us on 0118 9817339 or email info@appmeas.co.uk

Rotary Wireless Torque Transducers Use Battery-Powered 2.4GHz Telemetry

October 5th, 2010

DTDR-F Wireless Telemetry Rotary Torque TransducerApplied Measurements are proud to introduce the DTDR-F rotary wireless torque transducer, a novel design that expunges stator coils and inductive transmission systems from the design brief in favour of a cutting edge, battery-powered 2.4GHz wireless telemetry data acquisition and transmission system.

The DTDR-F design is based on the DTD-F torque transducer, a flanged device designed for use in static and quasi-static torque measurement applications, with modifications to allow the incorporation of a pair of balanced Delrin housings, one containing the telemetry acquisition and transmission module and the other containing a 3.6V high capacity lithium-ion (Li-Ion) battery that is recharged in-situ.

The DTDR-F is intended primarily for use in rotating applications at speeds of up 6500rpm where a direct, in-line torque measurement is desired, but is prohibited due to access restrictions or other obstacles.  In these cases, the lack of connecting cables and additional mounting hardware make the DTDR-F the ideal choice.  The DTDR-F is, of course, also suited to static or quasi-static applications where reaction torque sensing is required.

The T24-SA telemetry acquisition and transmission module is taken from the T24 range of wireless telemetry products and offers extremely low power consumption and a range of up to 120m.  The superb power supply control capability of the T24 acquisition modules allows you to achieve a battery life of 650 hours / 27 days based on continuous use at a transmission rate of 1 per second.  Reduce the transmission rate to 1 per minute and you’ll be looking at a battery life of 1 year!

As the DTDR-F’s wireless torque transducer’s output is not polled, it is possible to have multiple receiving modules from the T24 range reading the data simultaneously.  The T24 range includes handheld indicators, analogue output modules, printers, relay modules and even USB base stations with software to read and log data onto a PC.

One existing installation of the DTDR-F features a scaled 4-20mA signal being fed into a PLC via the T24-AO1i analogue output module whilst plant engineers can take torque readings on demand from anywhere nearby using a T24-HS handheld digital indicator.

The DTDR-F can also be used for dynamic torque measurement applications if fitted with the high speed T24-SAf acquisition module, which increases the output bandwidth to 2kHz (2000 readings per second).

Contact our sales engineers on +44 (0)1189 817339 or via info@appmeas.co.uk to discuss your requirement in detail.

Links

New Stress Analysis Services for Structural Testing

September 28th, 2010

Strain Gauged PlateHaving built their first transducer in 1991, Applied Measurements of Reading now offer an ISO 9001 compliant stress analysis service to compliment existing in-house manufacturing of strain gauge based sensors for the measurement of load, force, pressure, torque and linear displacement.

Increasingly measurements are required on parts that either cannot be moved or the application is for research and long term monitoring is required.  This might include bonding of strain gauges directly to components, structures or machines.  The service can be tuned to suit specific customer requirements that may include installation and calibration only, design of bespoke transducers to run a test or full installation, testing and reporting on completion.

Applied Measurements can accommodate all measurement parameters including short as well as long term tests, harsh or potentially explosive environments, multiple measurement channels and extremes of temperatures.  These include both fixed and rotating applications where wireless signal transmission may be required.

Typical applications include:Strain Gauging a Tank

  • Torque measurement on drives & PTO’s
  • Static tests such as structural monitoring with remote data acquisition
  • Fatigue tests for life estimations & equipment failure investigation
  • Gravimetric level control of silos and hoppers
  • Press force monitoring
  • Residual stress analysis and crack propagation
  • Custom sensors for automotive, marine, aerospace etc

Our field service team travel throughout the UK and overseas and there are few applications we haven’t seen before.  We are already highly experienced in the supply of sensors into industries as diverse as medical, marine and motor racing.  We understand the needs of bespoke applications and what it takes to get reliable measurements in conditions that are often less than ideal.

As Senior Structural Engineer Adrian Robinson at Wright Group says about the service supplied:

we find them to be very flexible and reliable in meeting our demanding needs. We would have no hesitation in recommending them to other companies”

And Airbus UK Launch Manager endorses these services further by saying:

they have supported every aspect required of this program in a prompt, efficient and innovative manner whilst playing an integral part in supporting the most successful FTI program in Airbus UK’s history”

Strain gauges bonded to a shaft to measure torqueThe British Society of Strain Measurement (BSSM) underpins installation standards, as the quality of the strain gauge application is vital to reliable long-term measurements.  As one of the most experienced manufacturers of strain gauge transducers in the country, we are grateful for this opportunity to partner Sensor Solutions Ltd – specialists in this type of work, as it is integral to the expansion of our skills base and adds to our continuing success.

Additionally, launching of this service coincides with the increased traffic being seen amongst insightful engineering organisations for a service to qualify the actual performance of equipment against predicted, as well as audit of aging plant.

For more information on this service and our sensor products, please contact us on 0118 981 7339 or email info@appmeas.co.uk

New Wireless Telemetry Systems For Strain Gauge Sensors

July 16th, 2010

For years the demands placed on higher performance measurement systems have meant they are often less versatile than their predecessor.  More sensors means more data is acquired over an increasing number of measurement channels and with these advances has come corresponding concerns regarding cable integrity and management.

This places emphasis on the test technician who is well used to swapping between sensors and matching them with the cable of the right length and appropriate connector.  Running cables across floors or through sensitive areas is at best inconvenient; with high performance cable products subject to mechanical damage throughout routine use.  Considered the weak link of many a measurement system, they are often the first focus of attention whenever measurement errors do occur.

For the best possible quality of signal, to avoid cable losses and measurement errors the strain gauge conditioning unit should be positioned as close to the measurement as possible.  However in large buildings or structures, or where many channels of measurement are required, this is often not convenient.

However a solution to these issues is only that if it solves these problems without slowing or degrading the existing flow of information, or reducing the ability to create new channels for data acquisition.

Applied Measurements Ltd has launched the T24 range of 2.4GHz wireless telemetry systems to connect to any strain gauge based sensor for the measurement of load, pressure, torque and displacement as well as standard 0-10V & 4-20mA sensors.  This means customers are now able to connect wirelessly using low power radio techniques, which allows data to be collected over many channels simultaneously.  The acquisition module uses a secure transmission network and provides live data over distances of up to 120m line-of-site and even further using external antennas.

The range of wireless telemetry products include:

  • T24-xA  -  Acquisition Modules  -  Voltage / Current / millivolt input
  • T24-RM  -  Relay Output Module  -  for limit or relay alarms
  • T24-HS  -  Handheld Displays  -  for configuration, taring, summing etc
  • T24-PR1  –   Printer Module  -  wireless thermal printer
  • T24-AO1  -  Analogue Output  -  4-20mA / 0-10Vdc / ±5Vdc
  • T24-BSu  -  USB Base Station  -  for data collection and configuration

The T24 Wireless Telemetry Range

Each acquisition module can be used to supply data to several different output devices, or receive data from a multiple of acquisition modules.  This inbuilt flexibility avoids dedicated components and means uses do not need to stock application specific modules.

The data acquisition PCB’s have been miniaturised sufficiently, so that they can be mounted directly within the sensors themselves.  This means if need be, the signal can be transmitted directly form the sensor (load cell, pressure transducer etc) with no external cabling.

Some examples of wireless telemetry system applications include the following (more information can be supplied on any of the examples given):

  • Automotive – Torque Measurement
  • Civil Engineering – Monitoring of Anchor Loads
  • Construction – Monitoring of Building Foundations
  • Lifting & Handling – Crane Load Pins
  • Marine – Mooring Ropes
  • Silo & Weighing Industry – Silo Weighing
  • Theatre & Outside Events – Stage & Rigging Monitoring
  • Waste Management – Skip Weighing
  • Alternative Energy – Wind Turbines

Approved for use by the FCC, ETSI and Industry Canada amongst others, the T24 wireless systems are based on a proprietary 804.15.4 chip and the range of wireless products co-exists with Bluetooth, Zigbee & WiFi devices without conflicts.  The 2.4GHz band on which it operates is license free around the World and importantly, data being transmitted is secure as each of the radio modules use a unique 6-digit Hexadecimal key and interference is avoided through the use of a proprietary protocol.

To set up the measurement a software toolkit is supplied as a free of charge downloadable file (Freeware).  This provides the user with the means to view and alter the device parameters and perform the calibration of all the modules wirelessly.  Additionally, radio link quality and sensor integrity can be checked, configurations can be stored, data can be logged to a CSV file and PC based reports can be prepared.

T24 data viewer and logger screenshot

T24 Data Viewer & Logger Screenshot

Some of the features / benefits derived from the wireless telemetry systems include:

  • No costly purchase of cables or the associated inconvenience
    of identification, storage and maintenance.
  • Eliminates measurement errors due to cable failure or connection problems.
  • Wireless is particularly suitable for some rotating or precision applications.
  • A wireless link can cost less than buying and installing a cable.
  • The acquisition modules are designed to sleep / wake to preserve battery life.
  • Existing PC terminals are used to log data from acquisition modules on site,
    so no additional hardware is required.
  • Once time stamped the data collected is forwarded to your server,
    desktop or mobile device in real time.

The benefits of this new product have been realised by one recent new customer as manroland Ireland’s Managing Director Martin Lockley says, “the fact that there are no wires and that the units are battery driven, makes this equipment very easy to deploy.  The load cell is being used to measure the clamping force in an area that is protected by light curtains and as such a wired system would not have been safe or practical to use in this environment.”

The wide-ranging potential for wireless signal transmission means that it is perfectly possible that in the not too distant future, measurements incorporating cables are limited to task specific applications.

The strength of the argument to go wireless in many applications is overwhelming. Having first hand knowledge of the problems associated with some cabling requirements, the demand on wireless systems is bound to increase still further and Applied Measurements will be well placed to take advantage of the solution.

If you require any help in the selection of the appropriate T24modules, our engineering staff will guide you through the process of matching the appropriate modules and getting the most out of wireless.

View the full T24 Wireless Telemetry range here

You can contact our sales engineers on +44 (0) 1189 817339 or by email: info@appmeas.co.uk

Accuracy vs. Resolution | Differences Explained

April 22nd, 2010

When it comes to sensors and transducers, accuracy and resolution are two terms that are often a source of confusion so here is a helpful article to clear everything up.  So here it is: accuracy vs. resolution…game on!

We will use a set of digital kitchen scales as the reference for our explanations:

  • They have a rated capacity of 10kg (10,000 grams)
  • They have a digital display that reads from 0.000kg to 10.000kg in steps of 0.001kg
  • Their accuracy is better than ±0.1% of their rated capacity

Resolution

Resolution is the number of pieces or parts that the output or displayed freading from a sensor or measuring instrument can be broken down into without any instability in the signal or reading.  It can be expressed in a number of ways, the two most common being:

1. Decimal Places

Our 10kg kitchen scale has a resolution of kilograms to 3 decimal places or ’3dp’.  This expression is made relative to the engineering units in which the scale is set to read.  Alternatively, if the kitchen scale was set to read from 0 grams to 10,000 grams in 1 gram increments it would be described as having a resolution of grams to zero decimal places.

2. Parts/Divisions/Counts

Our 10kg kitchen scale has a resolution of ’1 part in 10,000′, ’10,000 divisions’ or ’10,000 ‘counts’.  This expression describes resolution in absolute terms, rather than referring to an engineering unit.


Accuracy

Accuracy tells you how how closely the output or displayed reading from a sensor or measuring instrument will match the ‘true’ value.  Any mismatch between the reading and the ‘true’ value is usually referred to as the ‘error’.

In the case of our kitchen scale, this figure is <±0.1% of 10kg, which means that its reading will match the applied weight to ±0.010kg (±10 grams) or less, for instance:

  • With exactly 4.000kg of weight applied to the scales the display reads 3.990kg.  This is an error of 0.010kg or 0.1% of rated capacity.
  • With exactly 5.000kg of weight applied to the scales, the display reads 5.004kg.  This is an error of 0.004kg or 0.04% of rated capacity.

Practical Limitations

It is important to have the correct balance between accuracy and resolution to ensure that neither parameter is compromised.  In our example we have an accuracy of 10 grams and a resolution of 1 gram, this is a good balance.

The resolution of 1 gram ensures that the accuracy of 10 grams can be resolved without creating a false impression of accuracy.  For example, if the resolution was increased to 0.1 grams it tends to give users the impression that they have greater accuracy.  This increased resolution can also cause undesirable display instability.

If you would like any further information please feel free to contact us by telephone on +44 (0) 1189 817339 or email: info@appmeas.co.uk

High Accuracy Displacement Sensors Use Strain Gauge Technology

April 14th, 2010

AML/SGD-100mm Strain Gauge Displacement TransducerAs a result of increased demand from customers preferring to use a strain gauge based measuring system, we have introduced a 0–100mm version to our range of high accuracy displacement transducers.

Based on a four-arm Wheatstone-Bridge design with a nominal impedance of 350 Ohms, the design ensures excellent non-linearity, low power consumption and excellent temperature stability.  Additionally, the characteristics of strain gauge based sensors provide higher accuracy linear sensing than that of less accurate and lower resolution LVDT sensors.

These advantages of our high accuracy displacement sensors have been realised by Oxfordshire based company Fugro GeoConsulting Limited, who use the existing 0-50mm version of the sensors within their accredited geotechnical soil-testing laboratory.  This high-tech establishment tests soil samples in order to predict how they will behave when subject to the stresses and loads that planned new buildings will place on them. The lab has worked on many major projects including some of the world’s tallest buildings, biggest bridges and countless oil & gas rigs and wind turbine sites. The loads being simulated in the lab include the varying effects of wind, wave, tide and earthquake action, as well as the dead weight of the building itself.  The sensors are used (together with submersible load cells, also from Applied Measurements) to accurately monitor small changes in the dimensions of the samples as tests progress.

Fugro’s Laboratory Manager, Roger Brown, said “We test soil samples from all over the world and considerable time and effort is spent retrieving them from varied and often challenging locations, for example from the seabed at deep water locations in the Atlantic Ocean and as such, each sample is unique and expensive to collect.  In addition, some tests can take several weeks to perform.  The lab gets one shot only at each test and hence we need confidence in the testing equipment so that the results can be relied upon”.  Because these sensors operate at similar voltage levels and produce output signals compatible with other commonly used strain gauge sensors such as load cells and pressure transducers, they can easily form part of the same measurement chain in one central instrumentation system.

The AML/SGD high accuracy displacement sensors operate on low cost DC strain indicators or digital voltmeters, whereas standard LVDT transducers require conversion of the signals to achieve the same level of compatibility.  The simplicity of this type of measurement requiring no further processing of the basic signal, can make this type of test or measurement significantly more attractive to a user.

Additionally, strain gauge based displacement transducers exhibit typical non-linearity errors of a quarter of that of typical LVDT’s.  As with other strain gauge devices, the resolution is infinite and strain sensitivity is constant with a stabilized input voltage between 1.5Vdc and 15Vdc.

The range of AML-SGD displacement sensors are precision assemblies contained within a rugged stainless steel outer casing. The internal construction of the AML/SGD transducer ensures a smooth, virtually frictionless movement of the inner core, resulting in high overall accuracy of <±0.1% on 0-5mm, 0-10mm and 0-25mm models, <±0.15% on the 0-50mm model and <±0.25% on the 0-100mm model.

The return force of the spindle is maintained at a minimum level for effective operation when installed upside-down, without having to attach the spindle to the subject.  This makes the sensor less intrusive to the application when measuring on soft or pliable materials.  The sensors are designed for long life and excellent mechanical reliability, hence the 3-year manufacturing warranty offered.  This is evidenced by existing applications where these transducers have passed 14 million cycles in normal operation.  And unlike some LVDT transducers, the AML/SGD product is completely serviceable by the manufacturer in the event of damage in use.

Any transducer device would be quite useless without means of providing appropriate supply voltage and output signal and this is often a significant part of any data acquisition programme.  The AML/SGD range of high accuracy displacement sensors ensure these costs remain at a minimum, by utilising strain gauge signal inputs of existing data acquisition equipment.  In this way, these displacement sensors limit expenditure to the cost of the sensor only, thus eliminating further capital outlay on dedicated instrumentation.

However these advantages would be of no use if this combination of user benefits meant extended lead times.  As such it is the policy of Applied Measurements to keep most standard ranges in stock, meaning that the payback period is shorter and the benefits can be realised sooner.

Compact, rugged and easy-to-install, AML/SGD high accuracy displacement transducers are used by industries such as R&D, machine builders, automotive, marine and geotechnical.  The total cost of ownership of instrumentation is now more relevant than ever for these industries and improvements in the versatility of sensors that allow their use with simple DC signal conditioning is but one method of spreading the life costs.

For more information on the range of AML/SGD range of high accuracy displacement transducers please see the AML/SGD Product Page or PDF Datasheet.  Alternatively, please call us 0118 981 7339 or send an email to: info@appmeas.co.uk