Wire & Cable Tension Equipment Selector

Find the right tension measurement, telemetry, signal transmission, or strander monitoring path in less than 60 seconds.

1

Select Your Goal

Choose whether you need fixed pulley tension measurement, strand tension monitoring, wireless signal transmission, brake control, or cradle monitoring.

2

Define the Machine

Identify the machine type, such as a payoff, take-up, wire drawing line, cage strander, tubular strander, buncher, twister, or cabler.

3

Set the System Needs

Enter the approximate tension range, number of strands or rotating signals, and how the data should be displayed, transmitted, or controlled.

Wire and cable tension systems are highly application-specific. Sensor selection depends on tension range, pulley geometry, wrap angle, machine layout, rotating sections, signal requirements, and whether the goal is simple measurement, individual strand monitoring, wireless telemetry, closed-loop brake control, or cradle-level fault detection.

FMS tension measurement and telemetry technology partner

Tension Measurement & Telemetry Technology Partner

Find the Right System for Your Process

Gauge Advisor Tool

Wire & Cable Tension Equipment Selector

Find the right solution path for wire tension measurement, strander telemetry, wireless signal transmission, brake control, or cradle monitoring.

1What type of tension project is this?

Start by identifying whether the tension point is stationary or part of a rotating wire machine.

2What are you trying to accomplish?

Choose the main goal. Available options will narrow based on the project type selected above.

You can select more than one. Many wire and cable applications need a combination of tension sensing, telemetry, PLC output, brake control, and cradle monitoring.
Tip: Strander, cabler, buncher, and twister applications often need a system architecture, not just one sensor.

3Machine type

Choose the closest machine or process type.

4System details

Choose the details that apply to the selected goal or combination of goals.

Rotating signal requirements

Enter the additional signals that must cross from the rotating machine section to the stationary controls. Do not count cradleGUARD switch inputs here. Select a sensor goal separately when a new force sensor must also be sized.

Published RTM MP limits: RTM MP Plus supports 2 encoders, 8 digital, 1 analog, and 2 force-sensor inputs and cannot be extended. RTM MP can add two decoding modules to double those processed quantities.

Brake-control integration

RTM X42.CC is required for RTM X42.BC operation. Choose whether the control data must also be integrated with the machine PLC.

Brake-control note: The known force range in Step 5 refers to the individual strand force sensor. Brake-actuator sizing is a separate mechanical review; the uploaded RTM X42.BC sheet lists 600 N and 2,500 N actuator variants.

Cradle monitoring requirements

Choose the cradle count, switch types, and desired fault output. cradleGUARD monitors discrete safety/fault signals; it does not measure tension.

Signals to monitor

5Known force range and conditions

Choose the approximate sensor force or measurement range you already know. If you only know material tension, use the optional calculator below to estimate the resultant force at the sensing pulley.

How this works: If you select a known sensor-force range, the selector uses that range directly. If you complete the optional line-tension and wrap-angle calculation below, the calculated resultant sensor force becomes the primary sizing value and overrides the dropdown.

Calculate from line tension and wrap angle

New to line tension? Use the machine setpoint, process specification, or a measured value when available. A rough torque-based estimate is line tension ≈ torque ÷ effective radius. The wrap angle does not calculate line tension; it converts known line tension into the estimated resultant force at the sensing pulley.
Enter maximum line tension and wrap angle to estimate resultant sensor force. A complete calculation overrides the selected known range; incomplete calculator inputs do not.

Recommended system architecture

The cards below show how the recommended sensor, electronics, telemetry, software, control, and monitoring components fit together.

Application review recommended

Final details should be reviewed with Gauge Advisor and confirmed with FMS using the actual machine layout, tension range, pulley geometry, rotating architecture, signal requirements, and control needs.

Gauge Advisor is an authorized sales and application support partner for FMS.
Why engineers choose FMS
Purpose-built tension technology: Force sensors are designed for stable, repeatable measurement of moving wire, strand, and cable products.
Complete rotating-machine architecture: Sensors, telemetry, visualization, brake control, and cradle monitoring are engineered to work together.
Reduced dependence on slip rings: Wireless RTM systems transmit tension and machine signals from rotating equipment.
Flexible machine integration: Analog and industrial-network options support PLC, HMI, reporting, and control requirements.
Sensor first

For fixed-pulley applications, the tool uses the selected known sensor-force range directly, or a completed line-tension and wrap-angle calculation, to narrow the force-sensor family.

Telemetry second

For stranders, bunchers, twisters, and cablers, the tool considers whether tension data or machine signals need to move from rotating equipment to the stationary controls.

Architecture matters

A rotating project only shows the requirement groups that affect the selected goal: strand data, rotating signal counts, brake integration, or cradle monitoring. The output cards show the resulting system path.

Final sizing still matters

Final review should confirm sensor force, pulley weight, wrap angle, entry and exit angles, speed, machine layout, number of bays, and PLC requirements.

Wire & Cable Tension Systems Overview

FMS Wire & Cable Technologies at a Glance

The selector above recommends the best starting approach. Below is a visual reference of the primary FMS force sensors, telemetry systems, signal transmission options, and cradle monitoring technologies used in wire and cable applications.

FMS RMGZ100 compact force sensor for wire and cable tension measurement

Compact / Lower Tension

RMGZ100 Force Sensor

Compact force sensor for pulley-based wire and cable tension measurement. A good starting point for lower-force stationary measurement points such as payoff, take-up, rewinding, extrusion, drawing, and other non-rotating machine sections.

FMS CR Series compact force sensor for flexible pulley tension measurement

Flexible Pulley Mounting

CR-Series Force Sensor

Compact pulley force sensor with flexible installation options. Useful when the application needs standard pulley compatibility, compact mounting, higher force capacity than small low-tension sensors, or special installation options.

FMS RMGZ400 medium size force sensor for pulley tension measurement

Medium Pulley Tension

RMGZ400 Force Sensor

Medium-size pulley force sensor for wire and cable tension measurement where a more robust stationary measurement point is required. Often reviewed for medium force ranges and general machine-frame tension sensing.

FMS RMGZ800 heavy duty force sensor for wire and cable tension measurement

Heavy-Duty Tension

RMGZ800 Force Sensor

Heavy-duty force sensor for higher-force wire and cable tension measurement. Used when the application requires a larger nominal force range, rugged pulley-based sensing, or a more robust tension measurement setup.

FMS JG Series force measuring journal for harsh tension measurement applications

Harsh Environment

JG Series Force Measuring Journal

Force measuring journal for demanding tension measurement environments. A strong fit when moisture, temperature, chemical exposure, or rugged installation conditions are important factors in the sensor selection.

FMS digital measuring amplifier for tension sensor signal processing

Signal Processing

FMS Measuring Amplifiers

Measuring amplifiers process the force sensor signal and provide the usable output for display, calibration, PLC integration, or control. Amplifier selection depends on output type, channel count, mounting style, and communication requirements.

Strander Telemetry, Control & Safety Options

Choose How Rotating Machine Data Is Captured and Used

For stranders, bunchers, twisters, cablers, and other rotating wire machinery, the system may need to measure individual strand tension, transmit signals wirelessly, connect to a PLC, control brakes, or monitor cradle safety signals.

FMS RMGZ200 force sensor for low tension stranding machines

Low-Tension Stranding

RMGZ200 Force Sensor

Compact force sensor for low-tension rotating stranding applications. Commonly reviewed for smaller, higher-revolution planetary or tubular stranders, bunchers, and twisters where individual strand tension must be measured.

FMS RMGZ300 force sensor for medium tension stranding machines

Medium-Tension Stranding

RMGZ300 Force Sensor

Force sensor for medium-tension planetary stranders, tubular stranders, bunchers, and twisters. Often used with RTM telemetry when sensor signals need to be transmitted from the rotating machine section.

FMS RTM IO telemetry system for wire tension monitoring on stranding machines

Simple Telemetry / Analog PLC Output

RTM IO Telemetry System

Wireless telemetry system for monitoring wire tension on cage and tubular stranders. A practical fit when the application needs basic rotating tension monitoring with analog outputs to an existing PLC.

FMS RTM X42 modular telemetry system for strander tension monitoring

Modular Strander Monitoring

RTM X42 Telemetry System

Modular telemetry architecture for individual strand tension monitoring on cage and tubular stranders. Used when multiple strands, cradles, bays, or PLC integration requirements make the system more than a simple sensor installation.

FMS RTM MP Plus wireless signal transmission system for rotating wire machinery

Wireless Signal Transmission

RTM MP Plus

Wireless signal transmission system for rotating wire machinery. Used when encoder, digital, analog, force sensor, or other signals need to move from a rotating section to stationary machine controls without relying on slip rings.

FMS cradleGUARD wireless cradle monitoring system for wire break and safety detection

Cradle Safety / Fault Monitoring

FMS-cradleGUARD

Wireless cradle monitoring system for wire break detection, pintle locks, tilt switches, and related safety signals. Best viewed as a safety and fault-monitoring option, not a tension measurement sensor.

Control, Reporting & PLC Integration

Choose How Tension Data Supports Production

After the sensing or telemetry path is selected, the next decision is how the tension data should be viewed, documented, connected to controls, or used for automatic brake adjustment.

FMS EMGZ Ethernet IP measuring amplifier for PLC tension signal integration

PLC / Fieldbus Integration

Networked Measuring Amplifiers

Digital amplifier options for connecting force sensor data to machine controls using analog outputs or industrial network paths such as EtherNet/IP, PROFINET, EtherCAT, and related PLC integration methods.

FMS RTM X42 Control Center for strander tension monitoring and reporting

Visualization / Recipes / Reports

RTM X42.CC Control Center

Software and control center layer for RTM X42 systems. Used when operators need visualization, system configuration, recipe management, quality reporting, or the interface required for brake control.

FMS RTM X42 Brake Control system for closed loop strand tension control

Closed-Loop Brake Control

RTM X42.BC Brake Control

Brake control extension for automatic strand tension control on stranding machines. Used when individual strand tension values should drive automatic brake adjustment instead of relying only on manual operator changes.

Selection note: For fixed pulley tension measurement, final sensor sizing depends on actual tension, pulley weight, wrap angle, entry and exit angles, material speed, and installation geometry. For rotating stranders, final system layout also depends on the number of payoffs, bays or lay plates, cradles per bay, monitored strands, controlled strands, available power, and PLC or reporting requirements.

Next Step After the Selector

Match the tension system to the real machine

The selector gives you a strong starting point. Final system selection should still consider the tension range, pulley geometry, machine layout, rotating sections, signal needs, PLC integration, and whether the application requires monitoring, control, or safety diagnostics.

Why This Matters

Total tension does not always tell the full story

In wire and cable production, the right tension system can improve process visibility, reduce strand imbalance, support repeatable setups, and help operators catch problems before they become scrap, downtime, or quality issues.

Hidden strand imbalance: Total line tension can look acceptable while individual strands are running too tight or too loose.

Wrong sensor sizing: Force sensor selection depends on more than material tension. Pulley weight, wrap angle, entry angle, exit angle, and machine geometry all affect the force seen by the sensor.

System architecture matters: A rotating strander may need force sensors, wireless telemetry, PLC output, reporting software, brake control, or cradle safety monitoring.

Fixed pulley tension

Use force sensors and measuring amplifiers when tension needs to be measured at a stationary pulley, payoff, take-up, rewinder, extrusion line, or drawing line.

Individual strand monitoring

Use rotating force sensors and telemetry when individual wire or strand tension needs to be monitored on a strander, buncher, twister, or cabler.

Wireless signal transmission

Use wireless telemetry when encoder, analog, digital, force sensor, or safety signals need to move from rotating equipment to stationary machine controls.

Brake control and safety

Use brake control when strand tension should be adjusted automatically, and cradle monitoring when wire breaks, tilt switches, pintle locks, or safety signals need faster fault diagnosis.

System Layer

Decide how tension data should be used

After choosing the sensor or telemetry path, the next decision is how the signal should be displayed, transmitted, recorded, or used for control.

Basic Signal Output

Measuring Amplifier

Used with force sensors to process the sensor signal for display, calibration, analog output, or PLC connection.

Strander Monitoring

RTM IO or RTM X42

Used when strand tension or rotating machine data must be transmitted wirelessly from a strander, cabler, buncher, or twister.

Control / Reporting

Control Center or Brake Control

Used when operators need recipes, quality reports, visualization, or automatic brake adjustment for closed-loop strand tension control.

Common Questions

Quick answers before application review

Can one total tension reading show individual strand balance?

Not reliably. A total tension value can look correct even when individual strands are uneven. Individual strand tension monitoring is used when balance across strands matters.

Why does pulley geometry matter?

The force sensor sees the resultant force created by material tension, wrap angle, pulley weight, and line geometry. That is why final sizing should review the actual machine layout.

When is wireless telemetry needed?

Wireless telemetry is used when signals need to move from a rotating machine section to stationary controls without relying on slip rings or additional rotating wiring.

Ready for the Next Step?

Use your selector results to start the application review

Whether you are measuring tension at a fixed pulley, monitoring individual strand tension, transmitting signals from rotating equipment, adding brake control, or improving cradle fault detection, Gauge Advisor can help narrow the best wire and cable system path.