Manufacturing Data Aquisition/Processing TRIZ Cases
- Stepper Motor Signal Compensation for Vibration Reduction
A separate compensation module reshapes STEP and DIR signals to cut stepper motor vibration while preserving retrofit compatibility.
- 3D Print Head Selection for Overlapping Shell Properties
Automatically detects overlapping 3D shells, assigns material or color properties, and selects the right print head with less manual setup.
- 3D Print Head Selection for Overlapping Shell Property Mapping
Automatic overlap detection maps shell properties to slice regions, enabling accurate 3D print head selection with less manual setup.
- Additive Manufacturing Print Head With Independent Compaction Control
Independent compaction pressure control improves placement accuracy and curing consistency in continuous-fiber additive manufacturing.
- 3D Printing Pose Detection for Composed Object Alignment
A 3D printing system detects existing object pose via image processing to enable precise deposition of additional objects.
- 3D Printing Reinforcement via Digital Twin Stress Simulation
Digital twin simulation determines optimal reinforcement material placement for 3D printed objects.
- Non-Contact Dispenser Displacement Control via Ultrasonic Signal Attenuation
Piezoelectric transducer emits ultrasonic vibrations through additive material to measure dispenser-substrate distance.
- Repairing 3D Printed Articles Using Interlocking Attachment Features
A forming tool creates attachment features in fractured zones of damaged three-dimensional articles for secure repair portion interengagement.
- 3D Printing Binding Agent Temperature Control for Viscosity Management
Heating binding agents between 25 and 40 degrees Celsius stabilizes viscosity, preventing nozzle clogging during drop ejection.
- Segmented 3D Model Controls Multiple Printheads for Parallel Printing
Segmented 3D models direct multiple printheads to print independent segments in parallel, reducing printing time while maintaining structural integrity.
- 3D Printing Surface Roughness Control via Variable Agent Density
Variable contone density agent delivery resolves the contradiction between precise surface roughness control and simplified device complexity.