Programme-Controlled Manipulator TRIZ Cases

3D convolution with point clouds and hand kernels lets robots adapt suction pad layouts without re-learning, improving picking efficiency.

Camera-based work area overlays create a virtual fence around smart machines, improving robot safety awareness without physical barriers.

Synchronized robotic mounts reposition displays, projectors, and cameras in 3D space to overcome fixed viewing angles and boost visual impact.

An arcuate piston and bearing sleeve layout delivers faster wide-angle rotary actuation with high torque, low friction, and easier maintenance.

Parallel global and local planning keeps a manipulator moving collision-free in dynamic environments while avoiding stops, speed loss, and local minima.

Severity-based alerts halt or limit exoskeleton joint actuation, warn of imminent steps, and prevent unsafe state transitions.

Sensor, control, and computed data are learned with fault labels to improve prediction accuracy for complex industrial machines.

RGB-depth photogrammetry builds accurate meshes and material-aware scenes to train detectors for unknown, transparent, and reflective objects.

Automated sensor-based robot calibration corrects joint teaching errors inside sealed substrate tools, avoiding contamination and downtime.

Spatially arrayed pressure and vibration superpixels give robotic grippers tactile feedback to detect slip, misalignment, and abnormal contact.

Real-time sensing and coordinated robot arms enable simultaneous grasping and pushing for complex order picking that usually needs human handling.

Uses hierarchical real-time optimization to reconstruct faithful articulated avatar motion from a limited set of movement sensors.

A camera-equipped home robot detects and remaps indoor IoT devices as they move, eliminating manual location registration.

Image-based 3D modeling and encoder feedback help a robotic arm self-correct position, reducing manual redeployment time in flexible manufacturing.

Coordinate transformation plus distance- and position-based calibration improves robot pose accuracy while resolving reference-frame mismatch.

Ultra-low-latency VR and mock-torch control let expert welders guide a remote robotic torch in real time across hazardous long-distance sites.

High-level task edits are translated into trajectory transformations, letting non-experts update robot motions without full reprogramming.

Centralized manipulation profiles let robot stations share learned handling data, improving throughput and consistency across inventory systems.

Bio-signal detection and motion recognition let a compact support arm mirror user intent for coordinated one-handed desktop tasks with less workload.

A mobile painting robot uses a lifting column, articulated arm, cameras, and obstacle sensing to cover ceilings and corners with less effort.

Separating motion control from robot programming cuts pendant bulk while preserving wired safety functions and flexible wireless operation.

Coordinated start timing and one-click launch let correlated simulation programs verify start-order malfunctions and reduce repetitive setup.

A single moving sensor plans scan trajectories by objective priority, reducing hardware complexity while preserving reliable warehouse data collection.

Modular robotic workcells and vision-guided planning automate diverse item kitting while raising throughput and reducing downtime.

A robot learns movement from workpiece images to reach a target pose without target marks, cutting setup effort and operator tuning.

Automatic robot base repositioning recalculates axis values so manipulators can reach shifted working points without manual reprogramming.

Magnetorheological fluid coupling lets a robot joint switch drive direction quickly, reducing swing-arm inertia limits in fast reciprocal motion.

HTTP trajectory requests are matched to cached robot paths in the cloud to cut calculation latency and scale control services.

Four lead screws and coupled gear sub-assemblies convert limited robotic arm inputs into precise cable tensioning for pitch and yaw articulation.

Dynamic SLAM offloading splits robot mapping and localization between edge cloud and onboard compute to cut delay and energy under intermittent connectivity.

A roller drive with a service loop moves a flexible medical shaft faster and deeper while reducing buckling and tissue force.

A deformable plate and linkage align the sealing surface to complex shapes, maintaining suction and reducing damage during fast handling.

Continuous sine-cosine angle encoding stabilizes robot grasp detection training while reducing computation for varied object orientations.

Operator-guided spray path recording cuts robot programming downtime while preserving precise ceramic surface treatment.

External sensing lets autonomous robots detect slower units on the same path and overtake safely without centralized control or communication.

Time-of-flight and infrared palm sensing helps underactuated robotic grippers detect grasp success more reliably across varied objects.

Aggregated task-duration data by location helps robots adapt schedules to variable environments, recurring delays, and user restrictions.

An arc-guided block train simplifies a telescopic robot arm, cutting height and weight while preserving strength and wide vertical rotation.

Cameras detect worker actions and object position to trigger robot gripping and transport in sync with human movements, reducing manual activation.

Shared server learning updates robot obstacle recognition from selected field data, improving navigation accuracy while reducing redundant uploads.

Dynamic task sequencing lets a handling robot fetch during return trips, reducing travel distance, working time, and energy use.

A multi-axis clamping tool tracks the machining path to hold elongated workpieces locally, cutting fixture size, cost, and positioning error.

A lockable multipod drive braces the tool head frame to raise stiffness during machining while preserving a larger processing space.

Combining force and impedance control with external force sensing helps robot manipulators keep accurate contact force and avoid large motions after contact loss.

Calibrated robot offset detection aligns test cells for compact SLT layouts, high throughput, and lower device handling risk.

Aligned hollow axes and arm geometry guide linear objects through the robot while reducing wire deformation and torque loss during wide rotations.

A roller bearing nested inside the flex spline cuts drive size and weight while preserving shaft support and rotor-stator alignment.

A flexible-rack telescoping mast deploys inner sections first to raise payloads while keeping autonomous mobile devices compact and stable.

Sensor-driven state transitions let industrial robots slow, stop, or replan paths around moving obstacles without fixed safety zones.

Pre-stored arm-to-camera offsets let a robot adapt to camera mounting changes and reach the correct imaging position without re-teaching.