Programme-Controlled Manipulator TRIZ Cases

A scannable 2D bar code transfers robot health data without a direct network connection, reducing leakage and cyber security concerns.

Flexible springs add variable stiffness to Birfield continuum joints, while roll balls provide torsional resistance for adaptable manipulation.

Symmetrical fixtures struggle with complex stacking; asymmetric corner and movable side supports stabilize turnover box clamping.

Shared data types, sizes, and frequencies support consistent robot control while limiting physical wear during repeated training.

Adjustable pneumatic pressure and stroke length help an exoskeleton assist knee motion across varied skiing terrain.

Separating the robot base into coupled housings limits component interference and simplifies assembly, adjustment, and maintenance.

Learn how recursive response matrices solve robot articulation constraints in O(N) time while preserving simulation accuracy.

Separate main and small actuators use cable transmission to combine high gripping force with dexterous, conformable finger motion in limited space.

Fixed robot cameras blend feeds into orientation-based panoramic views, avoiding camera-head wear and cable stretching.

Joint-angle sensors identify walking-in-place exercise so a wearable driving module can apply suitable torque during rehabilitation or exercise.

A controller maintains clearance during normal robotic-arm motion and moves the hardstop into position to block undesired movement.

A shared reference frame registers multiple surgical robots to one patient coordinate system, reducing setup complexity and field crowding.

Pivoting segments and a two-point tendon let one gripper encapsulate varied workpiece shapes while avoiding tool-change downtime.

A tendon-routed connection plate enables rapid swaps between continuum arms and actuator packs while preserving alignment and tension control.

Intermeshing gear teeth on continuum arm joint rods reduce load-induced deflection while preserving controlled flexibility and positional accuracy.

Dynamic arm additions or removals can alter network topology; state signals block invalid instructions while preserving safe surgical operations.

Face detection and 3D reconstruction identify spectators blocking an HMD tracker, while notifications help restore frame rate.

Split loading frames open the box bottom so a transport robot can unload heavy items automatically with less manpower.

A reference path and PLC-supplied location offsets let a virtual robot transfer targets without repeated path setup, shortening debugging cycles.

Multi-view templates and staged hypothesis scoring help robots identify and retrieve irregularly arranged objects from containers.

Thermodynamics and machine learning combine satellite and in-situ observations to refine fractional ice cover for hydrodynamic modeling.

Rotatable grasping surfaces reorient bulbs about a minor axis before placement, reducing mechanical damage and labor in hydroponic systems.

Capture point and step-location errors help legged robots choose feasible paths that balance trajectory accuracy with stability.

An elevation-and-azimuth mechanism lowers the robot body while preserving positioning flexibility for movement and fine work on rough terrain.

Deformation sensors near the end effector provide multi-axis contact and force/torque detection without complex joint sensing.

Separating vertical arm-base lifting from horizontal robot motion reduces actuator complexity, energy use, and space for heavy workpieces.

Segmented camera images and point-cloud contours recover item pose during robotic moves, enabling faster, more accurate placement among totes.

Vision-based detection and candidate confirmation let non-experts teach robots objects and gripping information without specialized programming.

Multi-stage speed reduction lets a surgical robot use smaller motors while maintaining joint torque and thinning the manipulator arm.

Single-motor worm drives and modular finger assemblies support dexterous grasping while reducing actuator count, energy use, and mechanical complexity.

Modular robots autonomously couple into stable planar or non-planar platforms, accelerating transport structure deployment across difficult terrain.

An operation test first confirms tool attachment, then sensor data checks weight, length, or appearance before robot work begins.

An expandable enclosure houses a robotic arm, enlarges the workspace for in-space testing, contracts for launch, and contains debris.

Dense voxel grids make cluttered-scene reconstruction costly; a hybrid Octree U-Net and latent 3D masked autoencoder enables near-real-time multi-object completion.

When surface position data is inaccurate, the robot hand moves an object to a confirmation position for recognition before final placement.

Opposing actuator directions pivot the yoke-linked tendon and segments, helping one gripper accommodate varied workpiece shapes without tool replacement.

Modular nodes and hollow resilient members provide a strong yet flexible structure that can be assembled, modified, and handled by automated systems.

Robotic manipulators move containers between bays and storage locations, improving throughput without adding permanent storage space.

A laser distance sensor aligns an elongated tool with the robot flange while measuring position and orientation and detecting deformation.

The helical transition lumen guides blade rods and electrical leads through a robotic wrist, enabling smooth jaw actuation during electrosurgery.

Automatic locking lets one robot arm transfer goods between high-bay racks, reducing personnel needs in vertical farming.

Video capture and semantic analysis let robotic emulation devices control multiple targets through emulated peripheral inputs, reducing integration complexity.

Movable camera arms adjust height and angle to improve underbody imaging across low-clearance cars.

A cable-driven closure redirect mechanism separates jaw actuation from a multi-link wrist for more intuitive minimally invasive surgery.

An element graph and iterative solvers model suction pressure dynamics and cup interdependencies for realistic grasping and rapid prototyping.

A calibrated camera and marker jig automate robot coordinate setup, avoiding manual touch-up and multiple viewpoint captures.

Movement and target-position errors can disrupt taught robot motions; target-relative trajectory control keeps the end effector aligned for operation.

Independently controlled drive modules switch between catheter and wire configurations to improve stability and support in complex vasculature.

A flexible plate, chain drive, and rotator elevate spaced UV lamps to sterilize high positions without enlarging the robot.

Tilting the yaw axis relative to the roll axis helps prevent gimbal lock, broaden entry angles, and reduce vibration in minimally invasive surgery.