Load Cells

Load cells measure weight or force in platforms, tanks, hoppers, machinery and other process equipment. They provide the signal used by the rest of the weighing system to calculate, display or control the measured load.

This Laumas range covers compression, tension, beam, column and specialist designs. Choose the format around the direction of the load, working capacity, mounting arrangement, site conditions and the electronics already in use.

Shear Beam Load Cells

Compression Load Cells

Single Point Load Cells

Digital Load Cells

Double Shear Beam Load Cells

Load Cell Mounting Kits & Dummy Load Cells

Tension Load Cells

Bending Beam Load Cells

Column Load Cells

45 products

Laumas CX Compression Load Cell

From £263.07

Laumas CTOL Tension Load Cell

From £170.94

Laumas CTL Tension Load Cell

From £311.91

Laumas COL Column Load Cell

From £488.40

Laumas COK Column Load Cell

From £390.72

Laumas COD Digital Column Load Cell

From £582.75

Laumas CO Column Load Cell

From £463.98

Laumas CLS Compression Load Cell

From £366.30

Laumas CLBT Compression & Tension Load Cell

From £720.39

Laumas CL Compression & Tension Load Cell

From £622.71

Laumas CK Compression Load Cell

From £195.36

Laumas CBX Compression Load Cell

From £366.30

Laumas AZLI Single Point Load Cell

From £329.67

Laumas AZL Single Point Load Cell

From £97.68

Laumas AU Single Point Load Cell

From £109.89

Laumas ATL Single Point Load Cell

From £488.40

Laumas AS Single Point Load Cell

From £73.26

Laumas AR Single Point Load Cell

From £280.83

Laumas APL Single Point Load Cell

From £202.02

Laumas AM Single Point Load Cell

From £97.68

Laumas AF Single Point Load Cell

From £85.47

Load cells for tanks, platforms and machinery

A load cell sits at the heart of a weighing installation. As force is applied, it produces an electrical signal that can be measured by the connected indicator, transmitter or control system.

The mechanical layout normally determines the best design. Compression load cells suit supported tanks, silos and high-capacity structures, while tension load cells are designed for suspended or pulling loads. Shear beam load cells are widely used beneath vessels and platforms, and single-point load cells provide consistent weighing across compact platform scales.

For a complete installation, check whether the chosen sensor requires a suitable load-cell mounting kit. The signal can then be connected to a weight indicator for local operation, a weight transmitter for integration with a PLC or control system, or combined through a junction box when several analogue load cells support one structure.

Models for compression, tension, beam, column and specialist installations
Capacities for compact machinery, vessel weighing and heavy-duty structures
Options for new systems, replacement work and planned maintenance stock

Load cell selection guide

A load cell turns an applied force into an electrical signal that a weight indicator, transmitter or control system can use. The correct design depends on how the load reaches the sensor, the available space, the required capacity and how the reading will be displayed or passed to the wider process.

Compression, tension, shear beam, bending beam, single-point, column, double shear beam and digital models are intended for different mechanical layouts. A platform scale, for example, places very different demands on a sensor from a suspended vessel, large silo or weighbridge.

For a replacement, compare the mounting dimensions, load direction, capacity, output, cable arrangement and environmental rating with the existing unit. Choosing suitable mounting hardware and compatible electronics will make installation, calibration and future servicing more straightforward.

Mechanical compatibility

Choose the load cell format to suit the installation, including compression, tension, shear beam, single point or column arrangements. Correct mounting helps maintain the intended load path and measurement performance.

System integration

The signal needs suitable electronics to turn it into a usable weight reading or process value. Check the indicator, transmitter, junction box and control-panel connections, along with calibration access and the output required by the wider system.

Replacement and upgrades

For maintenance stock or retrofit work, check capacity, mounting centres, physical envelope, cable route and compatibility with existing weighing electronics before selecting a replacement component.

Learn more

Industrial weighing applications

Load cells are found anywhere weight or force needs to be measured as part of production, storage or material handling. Common examples include tanks, hoppers, platform scales, suspended vessels and purpose-built machinery.

Tank and hopper weighing

Compression and shear beam designs are commonly fitted beneath vessels, hoppers and silos. With the correct mounting assemblies, they can provide weight information for batching, stock control and day-to-day process monitoring.

Platform and bench scales

Single-point and beam-type load cells work well in compact platforms. Their design helps maintain a consistent reading when an item is not placed exactly in the centre of the weighing surface.

Suspended load measurement

Where the load hangs from the sensor or pulls directly through it, a tension load cell is usually the appropriate choice. Typical uses include suspended vessels, hanging scales and in-line force measurement.

OEM machinery and process equipment

Load cells can be built into production machinery, filling equipment and automated handling systems where weight or force needs to be measured as part of the process. Check the available space, mounting arrangement, working capacity and connection to the machine’s control system before choosing a model.

How to choose load cells

Start with the way the force passes through the equipment, then check capacity, mounting space, site conditions and compatibility with the weighing electronics. These points will usually narrow the choice to the most suitable load-cell design.

Check load direction

Identify whether the application measures compression, tension, bending or shear force. The load cell type must match the way force is applied through the structure.

Match capacity and layout

Select a capacity suited to the working load, tare weight and number of supports. Also check mounting centres, fixing method, available space and mechanical stops where fitted.

Consider the environment

Review exposure to dust, moisture, vibration, temperature changes, chemicals and cleaning processes. Select materials and installation hardware appropriate to the site conditions where specified.

Confirm electronics compatibility

Ensure the load cell can be used with the selected weight indicator, transmitter, junction box or control system. Consider calibration access, cable routing and signal conditioning requirements.

Load cell FAQs

The answers below cover the points buyers most often need to check when selecting a new load cell or finding a suitable replacement.

Which type of load cell do I need?

Choose by load direction and mechanical layout. Compression types suit supported loads, tension types suit suspended or pulling loads, while beam and single point designs are common in platforms and process weighing assemblies.

Can I replace an existing load cell with a different model?

Only if the capacity, mounting dimensions, load direction, electrical compatibility and environmental suitability are correct. For critical replacements, compare the existing datasheet and installation arrangement before ordering.

Do load cells need mounting kits?

Many vessel, hopper and tank installations require suitable mounting assemblies to control the load path, protect the sensor and allow for movement. The mechanical design should be assessed as part of the selection.

What electronics are used with load cells?

Load cells are commonly connected to weight indicators, weight transmitters, junction boxes or control panel equipment. The electronics provide excitation, signal conditioning, calibration and display or process output functions.