Specialized Development of Mechatronics Systems, Actuators, and Motor-Driven Architectures
Yaxonn supports industrial teams where mechanical architecture, motor behavior, sensing, control interfaces, simulation, and validation must converge into a robust product solution
- Compact actuator architecture definition
- Torque path and load path definition
- Motor, gear, brake, sensor, and housing integration
- Load case analysis and functional decomposition
- Redundancy and safety logic at architecture level
- Mechanical packaging and interface strategy
Actuator architecture
The actuator architecture determines torque path, packaging, controllability, durability, cost, and validation complexity.
Yaxonn helps select the right concept before the design is locked.
Robust Mechanical Development
Yaxonn connects product architecture with manufacturable design and validation logic, especially for compact mechanisms and actuator assemblies.
- Structural design
- FEA Simulation
- Tolerance Chain
- Material Selection
- DfM / DfA
Electric motor integration
Motor performance cannot be judged separately from the actuator, thermal envelope, control mode, mechanical load, and industrial constraints.
- BLDC / PMSM architecture
- Low-speed high-torque optimization
- Torque quality
- Thermal and electromagnetic constraints
- Control interface requirements
- Torque and angle sensing integration
- Position sensing architecture and packaging
- Hall, inductive, magnetic, and redundant sensing constraints
- PCB Design and integration
- Control-oriented system modeling
- Signal quality, sensitivity, and robustness analysis
- Interface definition with embedded and control teams
System Electronics requirements
In high-performance actuators, electronics design and functions are at the center of the customer's perceived quality and requirements fulfillment.
- 2D / 3D electromagnetic analysis
- Torque, flux, saturation, losses, and magnetic leakage
- Thermal and structural assumption review
- Sensitivity analysis and parametric comparison
- Simulation correlation with measured prototype behavior
Electromagnetic and multiphysics simulation
Simulation is used as an engineering decision tool, not as decoration. The objective is to reduce design risk, compare architectures, and prepare meaningful physical validation.
Test & Validation
For a design to be successful, it needs real-world physical testing and validation, mobilizing specific and targeted instrumentation and use cases.
- Torque and thermal characterization
- Load testing on different environmental temperatures and conditions
- D/P-FMEA correlation and validation.
- DVP and PVP definition and execution