TMC6460-EVKIT - Smart FOC Servo Driver Eval Kit | ADI Trinamic
MPN: TMC6460-EVKIT ✓ Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $299 | $299.00 |
| 5 | $279 | $1,395.00 |
| 10 | $259 | $2,590.00 |
| 25 | $239 | $5,975.00 |
| 50 | $219 | $10,950.00 |
TMC6460-EVKIT Overview
What is a smart FOC servo driver? Field-Oriented Control (FOC) is a motor-control technique that decouples torque and flux by transforming stator currents into a rotating reference frame, enabling sinusoidal torque generation, low torque ripple, and high dynamic response. A smart FOC servo driver combines the FOC algorithm, MOSFET/IGBT gate drivers, current-sense amplifiers, and encoder/hall feedback hardware in a single IC, eliminating the need for a separate microcontroller and external power stage. This integration reduces BOM count, PCB area, and firmware complexity for motion-control designs.
Key features of the TMC6460-EVKIT include support for three-phase BLDC and PMSM motors, integrated FOC algorithm with programmable PI controllers, integrated gate drivers for external N-channel MOSFETs, on-chip current sensing amplifiers, Hall sensor and encoder feedback inputs, and TMCL (Trinamic Motion Control Language) scripting capability. Communication interfaces include UART, SPI, and CAN for host MCU integration. The kit enables rapid prototyping of servo applications without requiring custom firmware development for the motor-control core.
The TMC6460-EVKIT targets industrial automation, robotics, CNC machinery, and precision positioning systems where deterministic servo performance, low acoustic noise, and high torque-bandwidth are required. Combined with the TMCL firmware stack and ADI Trinamic tools, engineers can parameterise motors, tune PID loops, and visualise motion profiles within minutes. The Eselsbruecke and Landungsbruecke boards provide isolated USB-host connectivity and standard TMCL I/O headers for sensor and actuator expansion.
When designing with this evaluation kit, ensure the host PC provides a stable 12-24 V supply to the EVAL board's power input and observe ESD precautions when connecting to powered motors. The kit ships with TMCL-IDE software for parameter tuning, real-time charting, and firmware updates across the entire ADI Trinamic ecosystem.
Drop-in alternatives for TMC6460-EVKIT — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.
Quick Comparison Tool — Select alternative parts for side-by-side comparison:
TMC4671-EVKIT
✅ Drop-In📋 Reference alternative (not in catalog)
TMC6300-EVKIT
✅ Drop-In📋 Reference alternative (not in catalog)
TMC6100-EVKIT
✅ Drop-In📋 Reference alternative (not in catalog)
TMC2209-EVKIT
✅ Drop-In📋 Reference alternative (not in catalog)
TMC5160-EVKIT
✅ Drop-In📋 Reference alternative (not in catalog)
TMC6460-EVKIT Specifications (manufacturer-published)
| Product Type | Evaluation Kit (Development Board) |
| Target IC | TMC6460 |
| Function | Motor Controller / Driver Power Management Evaluation Board |
| Included Boards | TMC6460-EVAL, Eselsbruecke, Landungsbruecke |
| Motor Type Supported | 3-phase BLDC / PMSM |
| Control Algorithm | Field Oriented Control (FOC) with programmable PI controllers |
| Integrated Features | FOC controller, gate driver, current sensing, feedback engine |
| Communication Interfaces | UART, SPI, CAN |
| Feedback Inputs | Hall sensor, encoder/ABN |
| Software Ecosystem | ADI Trinamic TMCL-IDE (TMCL scripting language) |
| Host Interface | Isolated USB via Eselsbruecke bridge board |
| RoHS Status | Compliant |
| Mounting Type | Benchtop / Desktop |
| Package Type | PCB kit (multiple boards) |
TMC6460-EVKIT Interfaces & Connectors
No manufacturer-published interface list is available for TMC6460-EVKIT. Refer to the manufacturer documentation for connector and header details.
Refer to the manufacturer documentation for the full expansion header pinout and connector pin numbering.
Typical Applications
TMC6460-EVKIT is suitable for 6 applications: Industrial Servo Motor Drive Development, Robotics and Cobot Joint Actuation, CNC and Precision Positioning Systems, E-Bike and Light Electric Vehicle Powertrain Prototyping, HVAC and Pump / Fan Motor Control, Laboratory Automation and Instrument Motion Stages.
Industrial Servo Motor Drive Development
The TMC6460-EVKIT provides a complete bench-top environment for prototyping industrial servo drives. The integrated FOC controller, gate driver, current sensing, and feedback engine of the TMC6460 let engineers tune three-phase PMSM and BLDC motors up to several hundred watts without writing low-level motor-control firmware. With TMCL-IDE and the included Eselsbruecke / Landungsbruecke boards, engineers can adjust PI gains, monitor real-time phase currents, and chart velocity/torque profiles over isolated USB. This shortens the firmware-development phase for servo-amplifier products in factory automation, conveyor control, and pump drives.
Recommended
Robotics and Cobot Joint Actuation
Robotic arms and collaborative-robot joint actuators demand smooth torque, low acoustic noise, and high torque-bandwidth, all of which the TMC6460's integrated FOC controller delivers. The TMC6460-EVKIT exposes Hall-sensor and ABN-encoder feedback inputs so engineers can evaluate closed-loop torque and position control of articulated joints. TMCL scripting lets developers script multi-axis motion profiles directly on the IC, simplifying firmware architecture for robot OEMs. The compact multi-board form factor (EVAL + Eselsbruecke + Landungsbruecke) makes it convenient for in-lab testing of cobot prototypes before committing to custom PCB layouts.
Recommended
CNC and Precision Positioning Systems
CNC machines and precision positioning stages require deterministic servo control with minimal torque ripple. The TMC6460-EVKIT, through the TMC6460's field-oriented control with programmable PI loops, lets engineers evaluate axis drives with the smoothness needed for spindle and feed-axis applications. Hall and encoder feedback support closed-loop positioning with sub-millimetre accuracy when paired with appropriate linear scales. Engineers can simulate load profiles in TMCL-IDE and tune acceleration / jerk parameters, ideal for prototyping CNC retrofit kits and semiconductor-handling automation.
Recommended
E-Bike and Light Electric Vehicle Powertrain Prototyping
Light electric vehicles such as e-bikes, e-scooters, and small AGVs benefit from the TMC6460-EVKIT's integrated FOC + gate-driver architecture. Engineers can benchmark torque-per-amp efficiency, regenerative-braking behaviour, and thermal performance on a PMSM drive before designing the production PCB. UART/SPI/CAN connectivity enables integration with vehicle-level controllers and battery-management hosts. The kit's bench-top form factor and TMCL scripting environment let small-team developers iterate quickly without provisioning a custom motor-control firmware stack.
Recommended
HVAC and Pump / Fan Motor Control
HVAC blowers, circulation pumps, and high-efficiency fans operate most efficiently when driven by sinusoidal FOC rather than trapezoidal block commutation. The TMC6460-EVKIT provides a turnkey platform for evaluating sensorless or Hall-sensored PMSM pumps and fans. Integrated current sensing supports torque-mode control loops, while TMCL scripting simplifies the implementation of soft-start, fault handling, and demand-based speed profiles. Energy-efficiency gains of 10-25% over six-step commutation are typical, making this kit useful for HVAC OEMs targeting IE4/IE5 efficiency classes.
Recommended
Laboratory Automation and Instrument Motion Stages
Automated pipetting, sample-handling robots, and laboratory motion stages require repeatable micro-positioning with low vibration. The TMC6460-EVKIT, leveraging TMC6460's FOC algorithm and encoder feedback, supports the smooth low-speed torque control essential for these instruments. The included TMCL-IDE enables rapid configuration of trapezoidal and S-curve motion profiles, and the isolated USB connection via the Eselsbruecke bridge board keeps sensitive measurement electronics electrically separated from the motor power stage, important for low-noise analytical instruments.
Recommended
Recommended Products Summary
Engineering reference data for TMC6460-EVKIT — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | TMC4671-EVKIT | TMC6300-EVKIT | TMC6100-EVKIT | TMC2209-EVKIT | TMC5160-EVKIT |
|---|---|---|---|---|---|---|
| Brand | Analog Devices (Trinamic) | Analog Devices (Trinamic) | Analog Devices (Trinamic) | Analog Devices (Trinamic) | Analog Devices (Trinamic) | Analog Devices (Trinamic) |
| Package | Multi-board PCB kit (EVAL + Eselsbruecke + Landungsbruecke) | Multi-board PCB kit | Multi-board PCB kit | Multi-board PCB kit | Multi-board PCB kit | Multi-board PCB kit |
| Target IC Function | Integrated FOC servo driver (controller + gate driver + current sense + feedback) | FOC controller only (no gate driver) | Gate driver only (no FOC controller) | Gate driver only (no FOC controller) | Stepper driver (StealthChop) | Stepper driver with motion controller |
| Motor Type | 3-phase BLDC / PMSM (servo) | 3-phase BLDC / PMSM (servo) | 3-phase BLDC / PMSM (low voltage) | 3-phase BLDC / PMSM | 2-phase stepper | 2-phase stepper |
| FOC Integrated | Yes (on-chip FOC controller) | Yes (on-chip FOC controller) | No (external MCU required) | No (external MCU required) | No (stepper, not FOC) | No (stepper, not FOC) |
| Integrated Gate Driver | Yes | No (external gate driver required) | Yes | Yes | Yes | Yes |
| Communication Interfaces | UART, SPI, CAN | UART, SPI, CAN | UART, SPI | UART, SPI | UART, Step/Dir | UART, SPI, Step/Dir |
| Software Ecosystem | ADI Trinamic TMCL-IDE + TMCL scripting | ADI Trinamic TMCL-IDE | ADI Trinamic TMCL-IDE | ADI Trinamic TMCL-IDE | ADI Trinamic TMCL-IDE | ADI Trinamic TMCL-IDE |
Key Differentiators
- Single-chip integration of FOC controller + gate driver + current sensing + feedback engine (vs TMC4671-EVKIT)
- On-chip FOC algorithm eliminates external microcontroller dependency (vs TMC6300-EVKIT)
- Full TMCL ecosystem reuse across motor types (vs TMC2209-EVKIT / TMC5160-EVKIT)
Design Notes
The TMC6460-EVKIT requires a stable DC bench supply matching the EVAL board's input-voltage rating to avoid nuisance faults during FOC tuning. According to the Analog Devices Trinamic evaluation board guidelines, decouple the EVAL board's motor-power input with low-ESR bulk capacitors appropriate to the motor's RMS current rating, and confirm the Eselsbruecke bridge-board USB isolator is properly grounded before energising the power stage.
Do not assume the TMC6460's integrated gate driver can directly switch the final motor power stage without verifying the MOSFET SOA. According to the TMC6460 datasheet summary on analog.com, the integrated gate driver drives external N-channel MOSFETs; engineers must size MOSFETs for the application's continuous and peak current, otherwise the FOC controller can demand torque beyond the MOSFET thermal limit and trigger shutdown.
Keep the EVAL board's motor-phase output traces short and wide to minimise parasitic inductance, because high di/dt from the FOC switching can otherwise ring into the current-sense amplifier inputs. According to the Analog Devices Trinamic hardware design guide, place the shunt resistors for current sensing on the low-side return path directly at the EVAL board's power-stage connector to keep the FOC current-loop accurate across the full PWM frequency.
The encoder/Hall feedback inputs on the TMC6460 are sensitive to motor-supply noise; route feedback traces away from the EVAL board's phase-output copper and add common-mode filtering if the cable length exceeds 0.5 m. According to the ADI Trinamic user guide, optical or magnetic isolation of the feedback cable is recommended in industrial environments with long cable runs between the motor and the EVAL board.
Compliance Information
RoHS compliance stated on JLCPCB part page entry for the TMC6460 IC. Evaluation boards are generally not AEC-Q100 qualified. Reach, halogen-free, and conflict-minerals data not located in the verified web data and marked unknown.
