Our advantage
Global Logistics
We have a 10-year logistics and express cooperation agreement, so our products can be shipped to any place in the world.
Brand new and original
Our products are imported in bulk from the place of origin. Because of the cooperative relationship, our products are all original and 100% new.
24-hour service
We provide 7*24 hours service to our customers. We will be there whenever you need us.
Price advantage
All our products are priced very favorably because we have our own warehouse and supply.
| Company Information | |||
| [email protected] | |||
| Mobile | +8615980777398 | ||
| +8615980777398 | |||
| 15980777398 |

The Schneider Electric XCC1406TR03K is an incremental rotary encoder designed to provide rotational movement feedback for industrial automation systems. Belonging to the OsiSense XCC product family, this encoder converts shaft rotation into electrical pulse signals that can be interpreted by programmable logic controllers (PLCs), high-speed counters, motion controllers, and other compatible automation equipment.
Featuring a 40 mm housing diameter, a 6 mm through shaft, and a resolution of 360 points per revolution, the XCC1406TR03K is suitable for industrial applications that require reliable rotational measurement, speed monitoring, and incremental position feedback. Its Type K push-pull output operates with an 11–30 V DC supply, making it suitable for control systems designed to accept this electrical interface.
The encoder comes with a 2 m radial shielded cable, allowing it to be connected to compatible control equipment without requiring a separate cable assembly for the standard installation. Its compact housing and through-shaft construction support integration into machinery where rotational feedback is needed but installation space is limited.
In industrial automation, incremental encoders are commonly used to monitor the rotation of rollers, conveyors, feed mechanisms, winding systems, and other moving components. The XCC1406TR03K can provide pulse information that enables a controller to calculate movement, estimate rotational speed, and coordinate machine operations.
For maintenance engineers, system integrators, and industrial spare-parts buyers, the Schneider XCC1406TR03K is a potential solution for equipment designed around its mechanical dimensions, electrical output, and resolution. Before purchasing or installing the encoder, it is important to verify the complete part number and confirm that the connected controller supports its signal characteristics.
| Parameter | Specification |
|---|---|
| Brand | Schneider Electric |
| Product Series | OsiSense XCC |
| Model | XCC1406TR03K |
| Product Type | Incremental Rotary Encoder |
| Housing Diameter | 40 mm |
| Shaft Type | Through shaft |
| Shaft Diameter | 6 mm |
| Resolution | 360 points per revolution |
| Output Stage | Type K |
| Output Type | Push-pull |
| Rated Supply Voltage | 11–30 V DC |
| Electrical Connection | Radial shielded cable |
| Cable Length | 2 m |
| Cable Composition | 8 × 0.14 mm² |
| Number of Channels | 3 |
| Maximum Output Frequency | 100 kHz |
| Maximum Rotation Speed | 9000 rpm |
| Maximum Output Current | 40 mA |
| No-Load Current Consumption | 0–75 mA |
| Protection Features | Short-circuit and reverse-polarity protection |
| Housing Materials | Aluminium and Zamak |
| Shaft Material | Stainless steel and aluminium, according to product construction |
| Weight | 0.405 kg |
| Typical Applications | Speed monitoring, rotational measurement, pulse counting, and machine automation |
Specifications should be checked against the documentation supplied for the exact encoder variant and the requirements of the installation.
The XCC1406TR03K is an incremental rotary encoder. Its function is to convert the mechanical rotation of a shaft into electrical signals representing incremental movement.
As the encoder shaft rotates, its sensing mechanism generates a sequence of output pulses. A connected controller receives these pulses and counts them to determine the amount of rotation. By measuring the number of pulses received over a period of time, the controller can also calculate rotational speed.
This arrangement enables a control system to monitor the movement of mechanical equipment without relying solely on a commanded motor speed or a predefined operating time.
An incremental encoder measures changes in position rather than maintaining an absolute position value. If the system loses power, the accumulated count may be lost unless the controller or another device preserves it. Applications requiring a known reference position may therefore need a homing operation or a separate reference sensor.
The XCC1406TR03K has a specified resolution of 360 points per revolution. This means that its nominal output resolution corresponds to 360 points for one complete shaft rotation.
For example, if the controller counts 90 points using the encoder’s nominal resolution convention, this represents one-quarter of a revolution. The corresponding movement can then be calculated using the dimensions and transmission ratio of the connected mechanical system.
The final count value depends on the receiving controller’s configuration and decoding method. Some controllers count a selected edge of the signal, while others use quadrature decoding or other processing methods. Engineers should distinguish the encoder’s specified resolution from the effective count value configured in the control program.
The 360-point resolution may be suitable for applications that need practical rotational feedback without requiring the higher nominal resolution of a 1000-point or 1024-point encoder.
The XCC1406TR03K uses a Type K push-pull output stage. This type of output actively drives the signal toward its high and low states within the specified electrical limits.
Push-pull output can provide a straightforward interface for compatible industrial inputs. However, the controller must support the encoder’s output voltage levels, current requirements, and signal characteristics.
Before connecting the encoder, check the PLC input module or counter’s electrical specifications. An input designed for a different interface may not interpret the output correctly, even if both devices use DC power.
The frequency of the encoder’s pulse output changes with the speed of the rotating shaft. A compatible controller can measure the pulse frequency and calculate the shaft’s rotational speed using the configured resolution.
This function can be used to monitor conveyor movement, detect a stopped roller, compare actual movement with a target, or coordinate several machine sections.
The encoder supplies the feedback signal. The PLC, counter, or motion controller is responsible for calculating speed and executing the control logic based on that information.
In a PLC-based automation system, the XCC1406TR03K can supply incremental feedback to a compatible high-speed counter or encoder input. The PLC can count the pulses and use the result to monitor movement, calculate speed, or determine the progress of a machine cycle.
For reliable operation, the input module must support the encoder’s Type K push-pull signal and handle the pulse frequency generated at the application’s operating speed.
Conveyors and roller-driven systems often require feedback to verify that the mechanical movement matches the expected operating condition. The encoder can be installed on a suitable rotating shaft or measuring mechanism to provide pulse information to the controller.
The control system can use this information to monitor speed, coordinate adjacent conveyor sections, or detect an unexpected loss of movement.
In automated equipment, incremental pulse counts can represent the movement of a rotating component or a mechanism connected through a transmission system. The controller can compare the count with a programmed target to determine when a movement or cycle should be completed.
The accuracy of the resulting position calculation depends on the encoder resolution, mechanical coupling, transmission ratio, controller configuration, and operating conditions.
Encoder feedback can help maintenance personnel identify problems such as unexpected stoppages, inconsistent speed, or missing movement signals. If a controller expects pulses but receives none, it may trigger an alarm or stop the machine according to its programmed logic.
Such monitoring depends on the control program and does not mean that the encoder independently identifies every mechanical or electrical fault.
Conveyor equipment commonly requires movement monitoring to maintain production flow and coordinate material transfer. The XCC1406TR03K can provide rotational feedback from compatible rollers or drive-related mechanisms.
The controller can use the pulse signal to estimate speed, monitor movement, and compare actual operation with the configured process requirements.
Packaging machines may use rotary feedback for material feeding, roller movement, indexing, and synchronized machine cycles. An incremental encoder can supply pulse signals for movement counting and speed monitoring.
The suitability of the XCC1406TR03K depends on the required resolution, operating speed, mounting arrangement, and electrical interface of the receiving controller.
Printing and converting equipment often contains rotating rollers and feed mechanisms that must operate in a coordinated manner. Encoder feedback can help the control system monitor shaft rotation and identify deviations from expected movement.
Correct installation, suitable shielding, and compatible signal processing are important where the machine operates continuously or uses multiple synchronized axes.
Automated material handling systems may use encoders to monitor rollers, feed mechanisms, and other moving components. Pulse information can support movement tracking, speed supervision, and coordination between sections of a production line.
The encoder must be mounted securely, and the shaft coupling must be appropriate for the mechanical arrangement.
Other potential applications include winding equipment, feeders, cutting machinery, automated assembly equipment, and production systems requiring incremental rotational feedback.
The final selection should be based on the actual mechanical and electrical requirements rather than the encoder series alone.
Before installation, verify the encoder’s 40 mm housing diameter, 6 mm through-shaft arrangement, mounting requirements, and available installation space.
The encoder must be mounted according to the equipment manufacturer’s instructions. Incorrect alignment, excessive shaft loading, or an unsuitable coupling can affect measurement performance and shorten the service life of the mechanical assembly.
Avoid applying loads beyond the manufacturer’s documented axial and radial limits. Check the surrounding equipment for vibration, contamination, and other environmental factors that could affect installation reliability.
The XCC1406TR03K requires an 11–30 V DC supply. Confirm that the available power source operates within the specified range and that the encoder’s supply polarity is correct.
Do not assume that all Schneider Electric XCC encoders use the same supply voltage. Some related variants use different output interfaces and supply requirements.
The Type K push-pull output must be compatible with the connected PLC input, high-speed counter, or motion controller.
Verify the input voltage range, maximum counting frequency, signal interpretation, and wiring arrangement before commissioning. The encoder’s specified maximum output frequency is 100 kHz, but the receiving device must also be able to process the actual signal frequency.
The encoder includes a 2 m radial shielded cable. Route the cable away from high-interference sources such as variable frequency drive output cables, motor power wiring, contactors, and switching equipment wherever practical.
Follow the manufacturer’s grounding and shielding recommendations for the complete installation. Protect the cable against crushing, sharp bends, excessive tension, heat, and contact with moving machinery.
After wiring, configure the receiving controller for the appropriate encoder input mode and counting method. Confirm the expected count value per revolution and determine whether the application requires direction detection, speed calculation, or a reference-position routine.
Test the encoder at a controlled and safe operating speed. Compare the controller’s count and speed readings with the expected mechanical movement before returning the equipment to normal production.
The XCC1406TR03K is intended to operate as part of a larger automation system. The following component categories may be suitable when their specifications are compatible.
| Component Category | Function | Compatibility Considerations |
|---|---|---|
| PLC with High-Speed Counter | Counts encoder pulses and processes movement data | Confirm push-pull input support and maximum counting frequency |
| Dedicated Counter Module | Measures pulse counts or frequency | Verify voltage levels and input type |
| Motion Controller | Uses incremental feedback for movement monitoring | Confirm supported encoder interface and resolution settings |
| DC Power Supply | Supplies power to the encoder | Must provide a compatible 11–30 V DC supply |
| Signal Interface Module | Connects field signals to control equipment | Check input characteristics and signal conditioning requirements |
| Industrial Cable Accessories | Support cable routing and protection | Select accessories suitable for the environment |
| Mechanical Mounting Hardware | Secures the encoder to the machine | Confirm shaft diameter, mounting arrangement, and alignment |
These are general component categories rather than a guarantee of compatibility with every product in each category. Check the specifications of the complete control system before installation.
When choosing a replacement encoder, it is important to compare resolution, shaft configuration, supply voltage, output stage, cable arrangement, and controller compatibility. Similar-looking encoders may not be electrically interchangeable.
| Model | Resolution | Output Type | Replacement Considerations |
|---|---|---|---|
| Schneider XCC1406TR01K | 100 points/revolution | Push-pull, 11–30 V DC | Lower resolution than the XCC1406TR03K |
| Schneider XCC1406TR03K | 360 points/revolution | Push-pull, 11–30 V DC | Original model reference |
| Schneider XCC1406TR05K | 500 points/revolution | Push-pull, 11–30 V DC | Higher resolution; controller scaling may need adjustment |
| Schneider XCC1406TR10K | 1000 points/revolution | Push-pull, 11–30 V DC | Higher resolution; not automatically interchangeable |
| Schneider XCC1406TR03R | 360 points/revolution | RS-422, 5 V class | Different electrical interface and supply requirements |
The XCC1406TR03R shares the nominal resolution of the XCC1406TR03K, but its RS-422 output interface differs from the Type K push-pull version. It should not be treated as a direct replacement without checking the receiving controller and wiring.
Likewise, changing to an encoder with a different resolution may require adjustments to PLC scaling, speed calculations, movement limits, or position logic.
For maintenance projects, the original model is generally the simplest replacement choice when it is available and remains suitable for the application. Any substitute should be selected only after mechanical and electrical compatibility has been verified.
The 40 mm housing supports integration into industrial machinery where mounting space is limited. Its 6 mm through-shaft design suits equipment built around this mechanical configuration.
The 360-point resolution provides incremental rotational feedback for applications that need pulse counting, movement monitoring, and speed measurement without requiring a higher-resolution variant.
The Type K output actively drives signal states and can connect to compatible industrial inputs. Correct electrical matching is necessary for reliable operation.
The 11–30 V DC supply range supports integration into suitable industrial control power arrangements within the specified limits.
The radial shielded cable has a specified length of 2 m, providing a pre-cabled connection for compatible installations and reducing the need to source a separate encoder cable for the standard configuration.
The encoder can be applied to suitable conveyor systems, packaging machinery, printing equipment, material handling systems, and other industrial machines requiring incremental feedback.
The Schneider Electric XCC1406TR03K is an incremental rotary encoder from the OsiSense XCC family. It converts rotational movement into electrical pulse signals for compatible industrial automation equipment.
The encoder has a nominal housing diameter of 40 mm. Its through shaft has a diameter of 6 mm.
Its specified resolution is 360 points per revolution. The effective count value used by the controller depends on the selected counting and decoding method.
The specified supply voltage range is 11–30 V DC. Correct polarity and electrical compatibility must be confirmed before connection.
The XCC1406TR03K uses a Type K push-pull output stage. The receiving PLC input or counter must support this interface.
The documented maximum output frequency is 100 kHz. The receiving controller must be capable of processing the pulse frequency generated under the actual operating conditions.
No. The PLC or counter must support the encoder’s push-pull signal characteristics, supply arrangement, and required pulse frequency. Check the input specifications before wiring.
Not as a guaranteed drop-in replacement. The XCC1406TR10K has a nominal resolution of 1000 points per revolution, while the XCC1406TR03K has 360 points per revolution. This difference can change position scaling and speed calculations. Confirm the controller configuration and machine requirements before substitution.
That depends on the servo drive’s supported feedback interface and control architecture. Do not assume that a general-purpose incremental encoder can replace a dedicated servo feedback device without verifying the drive documentation.
Verify the complete part number, 360-point resolution, through-shaft configuration, supply voltage, output type, cable length, and receiving controller compatibility. Also check the mechanical mounting requirements of the installed equipment.
When purchasing the Schneider XCC1406TR03K, confirm the complete reference on the product label. Related XCC variants may share the same housing diameter and shaft configuration while differing in resolution, supply voltage, or output interface.
For replacement projects, compare the existing encoder’s electrical characteristics with those of the proposed unit. Particular attention should be paid to the distinction between Type K push-pull and Type R RS-422 outputs, as well as differences in resolution.
During routine maintenance, inspect the cable sheath, mounting hardware, shaft alignment, and surrounding mechanical assembly. Unexpected pulse loss or unstable readings may be associated with wiring faults, electrical interference, mechanical misalignment, or incorrect controller configuration.
Before removing or installing an encoder, isolate the equipment according to the site’s safety procedures. After installation, verify pulse counting, speed readings, and any direction or reference-position functions required by the application.
For industrial spare-parts procurement, confirm stock status, product condition, packaging, and warranty terms with the supplier. If the original model is unavailable, select an alternative only after confirming electrical, mechanical, and functional compatibility.
The Schneider Electric XCC1406TR03K is a 40 mm incremental rotary encoder featuring a 6 mm through shaft, 360 points per revolution, a Type K push-pull output, and an 11–30 V DC supply range. Its 2 m radial shielded cable and 0.405 kg weight make it a defined option for compatible industrial installations.
The encoder can support rotational measurement, speed monitoring, pulse counting, and machine movement feedback when integrated with a suitable PLC, counter, or motion controller. Reliable operation depends on correct mechanical mounting, compatible signal wiring, and appropriate controller configuration.
For maintenance teams, automation integrators, and industrial equipment buyers, confirming the complete model reference and electrical interface is essential when purchasing or replacing the XCC1406TR03K. Careful verification helps prevent configuration errors and supports dependable performance in industrial automation systems.