TI’s TCAN6062 Brings CAN XL to Commercial Industrial Hardware

Quick Take

• Texas Instruments has introduced the TCAN6062, which it describes as the first commercially available CAN XL transceiver.
• The device supports data rates up to 20Mbps and payloads of up to 2,048 bytes—32 times the maximum payload of CAN FD.
• Production quantities are available, but system adoption still depends on CAN XL controller support, software and network-level validation.

Background

On August 12, 2026, Texas Instruments introduced the TCAN6062 CAN XL transceiver for industrial robots, humanoid robots and human-machine interfaces. The device brings the higher bandwidth and larger frames of CAN XL into commercially available hardware while retaining compatibility with CAN FD and CAN SIC operation. Its release gives engineers a practical way to evaluate the latest generation of CAN networking, although broader adoption will require more than replacing a single transceiver.

Q1. What did Texas Instruments announce?

TI introduced the TCAN6062, a physical-layer transceiver for Controller Area Network Extended Data-Field Length, better known as CAN XL. TI describes it as the industry’s first commercially available CAN XL transceiver and says production quantities are available for purchase.

The device supports data rates as high as 20Mbps and payloads of up to 2,048 bytes per frame. It is positioned for networks that need to move control, sensor, diagnostic and configuration data while maintaining the deterministic message prioritization associated with CAN.

Initial target applications include humanoid robots, industrial robots and HMI systems. The product is also relevant to other distributed industrial systems that combine real-time control with increasingly data-intensive functions.

Q2. How is CAN XL different from CAN FD?

CAN XL is the third generation of CAN technology, following Classical CAN and CAN FD. Its main advantages are higher data rates and substantially larger payloads.

CAN FD supports payloads of up to 64 bytes, while CAN XL raises the maximum to 2,048 bytes. The TCAN6062 therefore supports 32 times as much payload per frame and data rates of up to 20Mbps—more than twice the rate cited by TI for existing CAN alternatives.

Larger frames can reduce the need to divide software updates, diagnostic records or sensor data into many small messages. CAN XL can also support TCP/IP tunneling, helping connect CAN-based devices with Ethernet-oriented system architectures. Its physical-layer requirements are covered by ISO 11898-2:2024.

Q3. Why does the TCAN6062 matter for robots and industrial automation?

Robots increasingly combine deterministic motion control with cameras, sensors, diagnostics and software-managed functions. Traditional CAN remains effective for short, priority-sensitive control messages, but its bandwidth and payload limits can complicate the transfer of larger data sets.

The TCAN6062 offers a migration path that preserves familiar CAN behavior while increasing network capacity. In a robot, that could help transmit actuator status, sensor information, configuration data and diagnostic traffic across joints or distributed control nodes. In an HMI or industrial controller, it may reduce the overhead created by dividing large transfers across many frames.

However, CAN XL is not intended to replace industrial Ethernet in every application. Designers can use it as part of a mixed architecture, choosing the appropriate network according to bandwidth, latency, topology, cost and software requirements.

Q4. What are the device’s other important technical features?

The TCAN6062 supports CAN signal improvement capability, or SIC. TI says SIC can reduce ringing by as much as 80% in complex networks. Reducing signal reflections can make it easier to maintain communication quality across multi-node topologies, although actual results will depend on cabling, termination, node count, layout and operating conditions.

The transceiver also provides protection up to ±58V and supports a range of input and output voltage configurations. These features are useful in industrial environments where communication interfaces may encounter wiring faults, ground differences or electrical transients.

TCAN6062 belongs to TI’s broader portfolio of CAN transceivers, spanning CAN FD, CAN SIC and now CAN XL. Engineers should consult the product data sheet and applicable network standards before selecting operating speeds or protection requirements.

Q5. Can TCAN6062 directly replace an existing CAN FD transceiver?

Not automatically. Backward compatibility means the TCAN6062 can support migration and coexistence with CAN FD and CAN SIC operation. It does not guarantee that it is a drop-in replacement for every existing interface IC.

A system needs a controller and protocol implementation capable of producing and interpreting CAN XL frames before it can use the larger payload and higher data rate. Engineers must also verify the package, pinout, power and I/O voltages, protection levels, termination, cabling, topology and electromagnetic compatibility.

Software and network management also matter. A design may initially use the transceiver in a CAN FD-compatible mode and introduce CAN XL as other nodes are upgraded. Automotive, industrial and functional-safety systems may require additional qualification and system-level testing before the change can enter production.

Q6. Will the launch affect supply, pricing or inventory?

TI says production quantities of TCAN6062 are available for purchase, making the product more than a concept or engineering sample. The announcement nevertheless does not establish worldwide inventory levels, standard lead times or long-term availability in every market.

TI did not announce a shortage, allocation program, price increase or discontinuation of existing CAN FD transceivers. There is therefore no confirmed reason to expect an immediate market-wide change in CAN transceiver pricing or supply.

The more important near-term signal is ecosystem adoption. Buyers and engineers should watch for CAN XL support in microcontrollers, protocol stacks, development tools and test equipment. Design activity could grow as these supporting elements become available, but one product launch alone does not prove that CAN XL demand has reached mass-market scale.

Conclusion

The TCAN6062 moves CAN XL from a published standard toward hardware that industrial engineers can purchase and evaluate. Its 20Mbps data rate, 2,048-byte payload and compatibility with earlier CAN operation make it relevant to robots and data-intensive industrial networks. The next signs of wider adoption will come from controller support, reference designs, qualification results and additional suppliers—not simply initial product availability. For now, TCAN6062 creates a new networking option without displacing CAN FD or Ethernet across the broader market.